mhurhangee/ep-ind-claims huggingface dataset:
A method for processing packets received from bonded Internet Protocol communication links at a destination network device, comprising the steps of: receiving one or more packets from the bonded IP communication links; determining the arrival time of the packets arrived at the destination network device; determining latency difference among the bonded communication links according to the arrival time and sequence numbers of the packets; and delivering the one or more packets by the destination network device or storing the one or more packets in a memory according to the latency difference; when the one or more packets is received from one of the bonded communication links with the largest latency; delivering the one or more packets without storing the one or more packets in the memory; wherein the packets are Internet Protocol packets; wherein the sequence numbers are embedded by source network device in payload of the packets; and wherein the bonded IP communication links are formed by a plurality of network interfaces of the source network device with one or more of network interfaces of the destination network device or by one or more of network interfaces of the source network device with a plurality of network interfaces of the destination network device. receiving one or more packets from the bonded IP communication links; determining the arrival time of the packets arrived at the destination network device; determining latency difference among the bonded communication links according to the arrival time and sequence numbers of the packets; and delivering the one or more packets by the destination network device or storing the one or more packets in a memory according to the latency difference; when the one or more packets is received from one of the bonded communication links with the largest latency; delivering the one or more packets without storing the one or more packets in the memory; wherein the packets are Internet Protocol packets; wherein the sequence numbers are embedded by source network device in payload of the packets; and wherein the bonded IP communication links are formed by a plurality of network interfaces of the source network device with one or more of network interfaces of the destination network device or by one or more of network interfaces of the source network device with a plurality of network interfaces of the destination network device.
A therapeutic device for the treatment of human respiratory illnesses, consisting of - a mouthpiece in which a passage duct is worked, - a hose attached to the mouthpiece arranged flush with the opening of the passage duct and which - is formed from a flexible elastic material, the free end of which facing away from the passage duct is open and of - a curved or bent support body connected to the mouthpiece with a curvature radius, with an adjusting device provided at a distance from the mouthpiece in the support body, in which case the adjusting device can be moved in relation to the support body, with the adjusting device connected to the hose either directly or via intermediate elements and that, and that due to the changing position of the adjusting device, the distance from the hose to the support body can be variably adjusted so that the curvature of the hose can be set independently from the radius of curvature of the support body. - a mouthpiece in which a passage duct is worked, - a hose attached to the mouthpiece arranged flush with the opening of the passage duct and which - is formed from a flexible elastic material, the free end of which facing away from the passage duct is open and of - a curved or bent support body connected to the mouthpiece with a curvature radius, with an adjusting device provided at a distance from the mouthpiece in the support body, in which case the adjusting device can be moved in relation to the support body, with the adjusting device connected to the hose either directly or via intermediate elements and that, and that due to the changing position of the adjusting device, the distance from the hose to the support body can be variably adjusted so that the curvature of the hose can be set independently from the radius of curvature of the support body.
A method of modifying a porous surface of a medical device, the method comprising: providing an electrolytic cell including an electrolyte solution at a temperature of about 10°C or less, wherein the medical device comprises a porous surface and is an anode of the electrolytic cell; and applying a voltage comprising a peak voltage of between 100 V and 1000 V to the electrolytic cell to cause micro-arc oxidation at the porous surface of the medical device to form a plurality of micro-pores in the porous surface of the medical device. providing an electrolytic cell including an electrolyte solution at a temperature of about 10°C or less, wherein the medical device comprises a porous surface and is an anode of the electrolytic cell; and applying a voltage comprising a peak voltage of between 100 V and 1000 V to the electrolytic cell to cause micro-arc oxidation at the porous surface of the medical device to form a plurality of micro-pores in the porous surface of the medical device.
A plasticizer composition comprising: (a) an epoxidized fatty acid mono-ester selected from epoxidized 2-ethylhexyl tallate, epoxidized 2-ethylhexyl soyate, epoxidized octyl tallate, epoxidized octyl soyate, epoxidized octyl oleate, epoxidized methyl soyate or mixtures of any two thereof, (b) an epoxy-ester selected from epoxidized soybean oil, epoxidized linseed oil, and mixtures of any two or more thereof, the epoxidized fatty acid mono-esters and epoxy-esters being substantially free of mono- and/or diglycerides, and a ratio of epoxy esters to epoxidized fatty acid mono-esters is in the range of 10 to 90 weight percent, based on the total weight of the epoxidized fatty acid mono-ester and epoxy ester; and (c) a metal perchlorate selected from sodium or potassium perchlorate. (a) an epoxidized fatty acid mono-ester selected from epoxidized 2-ethylhexyl tallate, epoxidized 2-ethylhexyl soyate, epoxidized octyl tallate, epoxidized octyl soyate, epoxidized octyl oleate, epoxidized methyl soyate or mixtures of any two thereof, (b) an epoxy-ester selected from epoxidized soybean oil, epoxidized linseed oil, and mixtures of any two or more thereof, the epoxidized fatty acid mono-esters and epoxy-esters being substantially free of mono- and/or diglycerides, and a ratio of epoxy esters to epoxidized fatty acid mono-esters is in the range of 10 to 90 weight percent, based on the total weight of the epoxidized fatty acid mono-ester and epoxy ester; and (c) a metal perchlorate selected from sodium or potassium perchlorate.
A method of genome engineering a diatom comprising: (a) Selecting a target nucleic acid sequence, optionally comprising a PAM motif; (b) Providing a diatom, wherein a transgene encoding Cas9 or at least one split Cas9 is stably integrated within the genome of said diatom; (c) Providing at least one guide RNA comprising a complementary sequence to the target nucleic acid; (d) Introducing into said diatom, at least one guide RNA such that said Cas9 or split Cas9 processes said target nucleic acid sequence; wherein said guide RNA is fused to a cell-penetrating peptide, and said guide RNA is introduced into said diatom by contacting said diatom with the fusion guide RNA: cell-penetrating peptide. (a) Selecting a target nucleic acid sequence, optionally comprising a PAM motif; (b) Providing a diatom, wherein a transgene encoding Cas9 or at least one split Cas9 is stably integrated within the genome of said diatom; (c) Providing at least one guide RNA comprising a complementary sequence to the target nucleic acid; (d) Introducing into said diatom, at least one guide RNA such that said Cas9 or split Cas9 processes said target nucleic acid sequence;
Polymeric nanoparticle comprising the active ingredients finasteride and minoxidil, wherein said polymeric nanoparticle in the form of a nanocapsoid is obtainable by: (i) an organic phase comprising: (a) a hydrophobic polymer, which is a biodegradable polymer from the group of polyesters having a melting point of less than 120°C, that is a poly(ε-caprolactone), (b) a fixed oil, that is selected from medium-chain triglycerides, (c) a lipophilic surfactant of low HLB, having a value in the range of 3 to 6, that is a sorbitan monostearate, (d) an organic solvent, that is acetone, (e) a co-solvent, that is ethanol, and (f) finasteride; and (ii) an aqueous phase comprising: (g) a hydrophilic surfactant, that is polysorbate 80, (h) minoxidil, and (i) water. (i) an organic phase comprising: (a) a hydrophobic polymer, which is a biodegradable polymer from the group of polyesters having a melting point of less than 120°C, that is a poly(ε-caprolactone), (b) a fixed oil, that is selected from medium-chain triglycerides, (c) a lipophilic surfactant of low HLB, having a value in the range of 3 to 6, that is a sorbitan monostearate, (d) an organic solvent, that is acetone, (e) a co-solvent, that is ethanol, and (f) finasteride; and (a) a hydrophobic polymer, which is a biodegradable polymer from the group of polyesters having a melting point of less than 120°C, that is a poly(ε-caprolactone), (b) a fixed oil, that is selected from medium-chain triglycerides, (c) a lipophilic surfactant of low HLB, having a value in the range of 3 to 6, that is a sorbitan monostearate, (d) an organic solvent, that is acetone, (e) a co-solvent, that is ethanol, and (f) finasteride; and (ii) an aqueous phase comprising: (g) a hydrophilic surfactant, that is polysorbate 80, (h) minoxidil, and (i) water. (g) a hydrophilic surfactant, that is polysorbate 80, (h) minoxidil, and (i) water.
A speaker unit detachably mountable to a hearing aid device body configured to be positioned behind an ear of a wearer, the speaker unit comprising a contacting unit comprising at least one contact element and configured to be detachably mountable to a hearing aid device connector of said hearing aid device, a speaker unit body configured to be positioned at least partly in an ear canal of the wearer and comprising an output transducer unit configured to provide an acoustic signal based on an electrical signal input to said output transducer unit via said at least one contact element, a connecting unit provided between said speaker unit body and said contacting unit and including at least one wire configured to electrically connect said speaker unit body and said contacting unit, and a memory unit configured to store data relating to said speaker unit, wherein the memory unit is arranged in the speaker unit body, wherein the memory unit is arranged in connection with or on a printed circuit board in the speaker unit body and wherein an additional printed circuit board is arranged in the speaker unit body, wherein an antenna is at least partly formed in the connecting unit, and wherein one of the printed circuit boards is attached to at least part of the antenna and wherein at least one decoupling element is arranged between the printed circuit board and the additional printed circuit board so as to electromagnetically decouple the two printed circuit boards, and wherein the at least one decoupling element is configured to decouple signals around an operational frequency of the antenna.
A needle-like structure, comprising: a plurality of rows of projections formed being unidirectionally extended on a substrate; and a plurality of needle portions formed being spaced apart on each of the projections, characterized in that one side surface of each projection and one side surface of each of the needle portions are formed to be flush with each other, and each needle portion has a four-sided pyramidal shape. a plurality of rows of projections formed being unidirectionally extended on a substrate; and a plurality of needle portions formed being spaced apart on each of the projections, characterized in that one side surface of each projection and one side surface of each of the needle portions are formed to be flush with each other, and each needle portion has a four-sided pyramidal shape.
A diagnostic test strip comprising: at least one electrically insulating layer; a conductive pattern formed on the at least one electrically insulating layer including a plurality of electrodes disposed on the at least one electrically insulating layer at a proximal region of the test strip, a first plurality of electrical strip contacts (46; 48; 50; 52) disposed on the at least one electrically insulating layer at a distal region of the test strip, conductive traces electrically connecting the electrodes to the first plurality of electrical strip contacts, and a second plurality of electrical strip contacts (58; 60; 62; 64; 66) in the form of a discrete set of contacting pads in the distal region, the contacting pads being electrically isolated from the electrodes; a grounding contacting pad at the distal region and configured to establish a common connection to electrical ground, wherein the grounding contacting pad is positioned on the test strip proximally relative to the remaining contacting pads through a non-conductive notch region at the distal region of the test strip; and a reagent layer contacting at least a portion of at least one electrode; at least one discrete portion of electrical insulating material disposed over at least one of the contacting pads to form a distinct pattern readable to identify data particular to the test strip. at least one electrically insulating layer; a conductive pattern formed on the at least one electrically insulating layer including a plurality of electrodes disposed on the at least one electrically insulating layer at a proximal region of the test strip, a first plurality of electrical strip contacts (46; 48; 50; 52) disposed on the at least one electrically insulating layer at a distal region of the test strip, conductive traces electrically connecting the electrodes to the first plurality of electrical strip contacts, and a second plurality of electrical strip contacts (58; 60; 62; 64; 66) in the form of a discrete set of contacting pads in the distal region, the contacting pads being electrically isolated from the electrodes; a grounding contacting pad at the distal region and configured to establish a common connection to electrical ground, wherein the grounding contacting pad is positioned on the test strip proximally relative to the remaining contacting pads through a non-conductive notch region at the distal region of the test strip; and a reagent layer contacting at least a portion of at least one electrode; at least one discrete portion of electrical insulating material disposed over at least one of the contacting pads to form a distinct pattern readable to identify data particular to the test strip.
A power generating apparatus (1, 100, 301, 401, 501, 701, 901) for extracting energy from flowing water, comprising: a buoyancy vessel (3, 103, 303, 403, 503, 703, 903), and a turbine assembly (5, 105, 405, 505, 705a, 705b, 905a, 905b) coupled to the buoyancy vessel; the turbine assembly comprising a turbine rotor (9, 909) mounted to a nacelle (7, 107, 307, 407, 507, 907), and a support structure (11, 111, 411, 511, 711a, 711b, 911); the support structure being coupled at its inboard end (12, 112, 512) to the buoyancy vessel and at its outboard end (10, 510) to the nacelle; the turbine assembly being pivotally moveable between a first position and a second position; wherein, when the power generating apparatus is floating on a body of water; in the first position the turbine assembly extends below the buoyancy vessel and the nacelle (7, 107, 307, 407, 507, 907) is fully submerged below the water surface; and in the second position the turbine assembly extends generally to the side of the buoyancy vessel and a part of the nacelle projects above the water surface. a buoyancy vessel (3, 103, 303, 403, 503, 703, 903), and a turbine assembly (5, 105, 405, 505, 705a, 705b, 905a, 905b) coupled to the buoyancy vessel; the turbine assembly comprising a turbine rotor (9, 909) mounted to a nacelle (7, 107, 307, 407, 507, 907), and a support structure (11, 111, 411, 511, 711a, 711b, 911); the support structure being coupled at its inboard end (12, 112, 512) to the buoyancy vessel and at its outboard end (10, 510) to the nacelle; the turbine assembly being pivotally moveable between a first position and a second position; wherein, when the power generating apparatus is floating on a body of water; in the first position the turbine assembly extends below the buoyancy vessel and the nacelle (7, 107, 307, 407, 507, 907) is fully submerged below the water surface; and in the second position the turbine assembly extends generally to the side of the buoyancy vessel and a part of the nacelle projects above the water surface. in the first position the turbine assembly extends below the buoyancy vessel and the nacelle (7, 107, 307, 407, 507, 907) is fully submerged below the water surface; and in the second position the turbine assembly extends generally to the side of the buoyancy vessel and a part of the nacelle projects above the water surface.
A piercing system (100, 600) for piercing at least one sealing membrane (18, 64) closing off at least one cavity (14, 62) of a receptacle (12, 60), said system including a piercing member (110, 604) configured to puncture the sealing membrane (18, 64) and an ionizing device (108, 602) for removing the electrostatic charges that might be carried by said cavity (14, 62), said ionizing device (108, 602) comprising the piercing member (110, 604) that is adapted to present ionizing properties.
A switching circuit comprising: a switching transistor adapted to control operation of the switching circuit according to a control signal (DRIVER) applied to the control terminal of the switching transistor; a regulating circuit adapted to generate the control signal (DRIVER); and a detecting circuit adapted to sense a voltage at the control terminal when the switching transistor is in an OFF state and to generate a drive signal (VGATENEGSNS) according to the sensed voltage, wherein the regulating circuit is adapted to generate the control signal (DRIVER) based on the generated drive signal (VGATENEGSNS); characterised in that the detecting circuit comprises a resistor connected in series with a transistor of the regulating circuit. a switching transistor adapted to control operation of the switching circuit according to a control signal (DRIVER) applied to the control terminal of the switching transistor; a regulating circuit adapted to generate the control signal (DRIVER); and a detecting circuit adapted to sense a voltage at the control terminal when the switching transistor is in an OFF state and to generate a drive signal (VGATENEGSNS) according to the sensed voltage, wherein the regulating circuit is adapted to generate the control signal (DRIVER) based on the generated drive signal (VGATENEGSNS); characterised in that the detecting circuit comprises a resistor connected in series with a transistor of the regulating circuit.
A method of manufacturing a small-diameter resin twisted brush, the method comprising: a) arraying multiple radially-projecting resin filaments in parallel; b) clamping said resin filaments by two or more stem resin filament rods with thermally fusible resin filament rods parallel thereto; c) twisting by holding a stem tip portion and a stem rear end which causes the radially-projecting resin filaments to become helically oriented around the stem as the center axis of a concentric circle; d) heat treating the entire assembly either after step c) while the above state is maintained, or during or before step c), to melt only the thermally fusible resin filament rods, thereby fusing each of the radially-projecting resin filaments which constitute the bristles with the two or more stem resin filament rods, and e) generating a small-diameter resin twisted brush which maintains a twisted brush shape which prevents the bristles from falling out. a) arraying multiple radially-projecting resin filaments in parallel; b) clamping said resin filaments by two or more stem resin filament rods with thermally fusible resin filament rods parallel thereto; c) twisting by holding a stem tip portion and a stem rear end which causes the radially-projecting resin filaments to become helically oriented around the stem as the center axis of a concentric circle; d) heat treating the entire assembly either after step c) while the above state is maintained, or during or before step c), to melt only the thermally fusible resin filament rods, thereby fusing each of the radially-projecting resin filaments which constitute the bristles with the two or more stem resin filament rods, and e) generating a small-diameter resin twisted brush which maintains a twisted brush shape which prevents the bristles from falling out.
Method for determining an incident flow situation which influences the dynamic lift on at least one rotor blade for a rotor of a wind turbine, wherein the rotor blade has a profile having a profile depth and a pressure side and an intake side are formed between a front edge and a rear edge of the profile, characterised in that in at least one portion of the rotor blade in the longitudinal direction at the rotor blade surface along a chord of the rotor blade at least at three pressure measurement locations (138, 140, 142) which are spaced apart from each other a pressure measurement is carried out, in that by means of a digital method or by means of measurements pressure coefficients (cp1, cp2, cp3) which occur over the path of the profile of the rotor blade are determined, and in that as a result of the pressure measurements which are carried out and the pressure coefficients (cp1, cp2, cp3) determined for the respective pressure measurement location (138, 140, 142) at least one incident flow speed and one incident flow angle are determined.
Method for detecting relative movements between at least two components of a vehicle, in particular in rail vehicles and/or trains, characterised in that an RFID transponder, which has a first part and a second part as well as a predetermined breaking point between the first part and the second part is attached to a first component to be monitored of the vehicle such that relative movements and/or positional changes of this component lead to a fracture of the RFID transponder at the predetermined breaking point, and that the first part of the RFID transponder is permanently attached at least to the first component to be monitored and the second part of the RFID transponder is connected at least to a second component (2, 3, 4) to be monitored.