mhurhangee/patent-ind-claim-en huggingface dataset:
An enhanced parcel delivery system for delivering parcels via an unmanned aerial vehicle, UAV, 100 the system comprising: a UAV support mechanism comprising: a pair of opposing rails extending in a longitudinal direction, wherein the opposing rails are spaced apart from one another in a lateral direction that is transverse to the longitudinal direction, the opposing rails defining: a landing region ; a takeoff region positioned opposite the landing region; a transport region positioned between the takeoff region and the landing region; and at least one UAV comprising: a UAV chassis comprising: an upper portion having an upper portion width evaluated in a lateral direction; a lower portion positioned below the upper portion in a vertical direction, the lower portion having a lower portion width evaluated in the lateral direction; and a reduced width portion positioned between the upper portion and the lower portion, the reduced width portion having a width evaluated in the lateral direction, wherein the width of the reduced width portion is less than the upper portion width and the lower portion width, and wherein the reduced width portion is configured to engage the pair of opposing rails of the UAV support mechanism. a pair of opposing rails extending in a longitudinal direction, wherein the opposing rails are spaced apart from one another in a lateral direction that is transverse to the longitudinal direction, the opposing rails defining: a landing region ; a takeoff region positioned opposite the landing region; a transport region positioned between the takeoff region and the landing region; and a landing region ; a takeoff region positioned opposite the landing region; a transport region positioned between the takeoff region and the landing region; and at least one UAV comprising: a UAV chassis comprising: an upper portion having an upper portion width evaluated in a lateral direction; a lower portion positioned below the upper portion in a vertical direction, the lower portion having a lower portion width evaluated in the lateral direction; and a reduced width portion positioned between the upper portion and the lower portion, the reduced width portion having a width evaluated in the lateral direction, wherein the width of the reduced width portion is less than the upper portion width and the lower portion width, and wherein the reduced width portion is configured to engage the pair of opposing rails of the UAV support mechanism. an upper portion having an upper portion width evaluated in a lateral direction; a lower portion positioned below the upper portion in a vertical direction, the lower portion having a lower portion width evaluated in the lateral direction; and a reduced width portion positioned between the upper portion and the lower portion, the reduced width portion having a width evaluated in the lateral direction, wherein the width of the reduced width portion is less than the upper portion width and the lower portion width, and wherein the reduced width portion is configured to engage the pair of opposing rails of the UAV support mechanism.
A transmission method, comprising: generating a first transmission signal z 1 (t) and a second transmission signal z 2 (t) by calculating Equation : [MATH. 1] from a first modulated signal s 1 (t) and a second modulated signal s 2 (t) and transmitting the first transmission signal z 1 (t) and the second transmission signal z 2 (t) from a respective horizontal polarizing transmission antenna and vertical polarizing transmission antenna; and calculating θ, a, and b based on feedback information so as to satisfy: wherein h 11 (t) represents channel characteristics between the horizontal polarizing transmission antenna and a horizontal polarizing reception antenna at a receiver side, h 22 (t) represents channel characteristics between the vertical polarizing transmission antenna and a vertical polarizing reception antenna at the receiver side, and δ is an angle between the the pair of the horizontal polarizing transmission antenna and the vertical polarizing transmission antenna and the pair of the horizontal polarizing reception antenna and the vertical polarizing reception antenna when in a reception antenna state in which the horizontal polarizing reception antenna and the vertical polarizing reception antenna are actually installed or when the reception antenna state is changed. generating a first transmission signal z 1 (t) and a second transmission signal z 2 (t) by calculating Equation : [MATH. 1] from a first modulated signal s 1 (t) and a second modulated signal s 2 (t) and transmitting the first transmission signal z 1 (t) and the second transmission signal z 2 (t) from a respective horizontal polarizing transmission antenna and vertical polarizing transmission antenna; and calculating θ, a, and b based on feedback information so as to satisfy: wherein h 11 (t) represents channel characteristics between the horizontal polarizing transmission antenna and a horizontal polarizing reception antenna at a receiver side, h 22 (t) represents channel characteristics between the vertical polarizing transmission antenna and a vertical polarizing reception antenna at the receiver side, and δ is an angle between the the pair of the horizontal polarizing transmission antenna and the vertical polarizing transmission antenna and the pair of the horizontal polarizing reception antenna and the vertical polarizing reception antenna when in a reception antenna state in which the horizontal polarizing reception antenna and the vertical polarizing reception antenna are actually installed or when the reception antenna state is changed.
A method for preparing coated substrates, in which a) at least one aqueous suspension is prepared, the aqueous suspension containing water, at least one agglomerate former and particles of at least one refractory metal carbide, the particles of the at least one refractory metal carbide forming agglomerates in the at least one aqueous suspension, b) the at least one aqueous suspension being applied to a porous substrate, and c) the substrate being subjected to a sintering process after step b), the diameter of each of the agglomerates being greater than the pore entrance diameter of each of the pores of the porous substrate. a) at least one aqueous suspension is prepared, the aqueous suspension containing water, at least one agglomerate former and particles of at least one refractory metal carbide, the particles of the at least one refractory metal carbide forming agglomerates in the at least one aqueous suspension, b) the at least one aqueous suspension being applied to a porous substrate, and c) the substrate being subjected to a sintering process after step b),
A method of communication employing codebooks, wherein each codebook defines, for each layer of a plurality of layers, a mapping between input bits and multi-dimensional constellation points; the method comprising: generating a plurality of symbol error patterns by running a decoder process for each of a plurality of permutations of constellation points between nonzero entities for at least one encoder layer; identifying , for each of the symbol error patterns, a corresponding bit mapping that results in a lowest bit error; defining a plurality of initial codebooks based on each permutation and each corresponding bit mapping; and identifying a final codebook by running a receiver process for each initial codebook and selecting one of the initial codebooks with a highest performance. generating a plurality of symbol error patterns by running a decoder process for each of a plurality of permutations of constellation points between nonzero entities for at least one encoder layer; identifying , for each of the symbol error patterns, a corresponding bit mapping that results in a lowest bit error; defining a plurality of initial codebooks based on each permutation and each corresponding bit mapping; and identifying a final codebook by running a receiver process for each initial codebook and selecting one of the initial codebooks with a highest performance.
A cutting element made of hard metal for an agricultural soil cultivation tool for cutting into soil, having a top side and a bottom side as well as a front side , a back side located opposite the front side , and at least one side surface , wherein the top side and the bottom side are connected via front side , back side and the at least one side surface , and the front side has a cutting region, characterized in that the front side has a cutting region comprising several teeth, wherein at least one tooth is formed with a first flank and a second flank , wherein the first flank and the second flank are part of the cutting region, wherein a profile line of the first flank and a profile line of the second flank have different lengths.
An electrosurgical generator comprising: an electromagnetic signal supply unit for generating radiofrequency (RF) and/or microwave energy; an output port configured to be connectable to a coaxial transmission line to convey the RF and/or microwave energy to a probe for delivering the RF and/or microwave energy from a distal end thereof; a feed structure for conveying the RF and/or microwave energy to the output port; and an electroporation waveform supply unit arranged to generate energy having an electroporation waveform for causing reversible or irreversible electroporation (IRE) of biological tissue, wherein the electroporation waveform supply unit comprises: a DC power supply that is independent of the electromagnetic signal supply unit for generating radiofrequency (RF) and/or microwave energy; and a pulse generator connected to the DC power supply and configured to output one or more pulses of DC power as the electroporation waveform, wherein the electroporation waveform supply unit is connected to the feed structure to convey the electroporation waveform to the output port for delivery to the probe, and wherein the feed structure comprises a common signal pathway for conveying the electroporation waveform and the RF and/or microwave energy to the output port. an electromagnetic signal supply unit for generating radiofrequency (RF) and/or microwave energy; an output port configured to be connectable to a coaxial transmission line to convey the RF and/or microwave energy to a probe for delivering the RF and/or microwave energy from a distal end thereof; a feed structure for conveying the RF and/or microwave energy to the output port; and an electroporation waveform supply unit arranged to generate energy having an electroporation waveform for causing reversible or irreversible electroporation (IRE) of biological tissue, wherein the electroporation waveform supply unit comprises: a DC power supply that is independent of the electromagnetic signal supply unit for generating radiofrequency (RF) and/or microwave energy; and a pulse generator connected to the DC power supply and configured to output one or more pulses of DC power as the electroporation waveform, a DC power supply that is independent of the electromagnetic signal supply unit for generating radiofrequency (RF) and/or microwave energy; and a pulse generator connected to the DC power supply and configured to output one or more pulses of DC power as the electroporation waveform, wherein the electroporation waveform supply unit is connected to the feed structure to convey the electroporation waveform to the output port for delivery to the probe, and wherein the feed structure comprises a common signal pathway for conveying the electroporation waveform and the RF and/or microwave energy to the output port.
An integrated electronic device comprising: - a body including a substrate of semiconductor material and a top region arranged above said substrate; said top region forms a top surface (7;7a) of the body, said substrate forming a bottom surface (8;8a) of the body; - a first transceiving antenna (3;3a) formed by a conductive winding arranged within the top region and extending from said top surface (7;7a) of the body and configured so as to enable a magnetic or electromagnetic coupling of said integrated electronic device with electromagnetic coupling means ; and - a first magnetic via of magnetic material arranged at least in part inside said body ; and wherein the first transceiving antenna is configured so as to form, in use, a communication channel between said first transceiving antenna (3;3a) and said electromagnetic coupling means ; characterized in that said first magnetic via extends only through the substrate. - a body including a substrate of semiconductor material and a top region arranged above said substrate; said top region forms a top surface (7;7a) of the body, said substrate forming a bottom surface (8;8a) of the body; - a first transceiving antenna (3;3a) formed by a conductive winding arranged within the top region and extending from said top surface (7;7a) of the body and configured so as to enable a magnetic or electromagnetic coupling of said integrated electronic device with electromagnetic coupling means ; and - a first magnetic via of magnetic material arranged at least in part inside said body ;
A method performed by a voice-enabled computer system, the method comprising: obtaining a current nonce; operating a speaker of the voice-enabled computer system to produce a current acoustic signature based on the current nonce, including defining a frequency-hopping pattern for the current acoustic signature based on a first portion of the current nonce, wherein the frequency-hopping pattern includes frequencies in a range that overlaps a vocal range of an authorized user, defining a modulation sequence based on a second portion of the current nonce, and generating sound at the speaker based on the frequency-hopping pattern and the modulation sequence; while producing the current acoustic signature, operating a microphone of the voice-enabled computer system to record audio that includes the current acoustic signature and a speech input; and validating the recorded audio based at least in part on the current acoustic signature; and in the event that the recorded audio is validated: processing the recorded audio to extract the speech input; processing the speech input to determine an action to perform; and performing the action. obtaining a current nonce; operating a speaker of the voice-enabled computer system to produce a current acoustic signature based on the current nonce, including defining a frequency-hopping pattern for the current acoustic signature based on a first portion of the current nonce, wherein the frequency-hopping pattern includes frequencies in a range that overlaps a vocal range of an authorized user, defining a modulation sequence based on a second portion of the current nonce, and generating sound at the speaker based on the frequency-hopping pattern and the modulation sequence; while producing the current acoustic signature, operating a microphone of the voice-enabled computer system to record audio that includes the current acoustic signature and a speech input; and validating the recorded audio based at least in part on the current acoustic signature; and in the event that the recorded audio is validated: processing the recorded audio to extract the speech input; processing the speech input to determine an action to perform; and performing the action. processing the recorded audio to extract the speech input; processing the speech input to determine an action to perform; and performing the action.
An apparatus comprising: a differential driver module comprising at least two switching modules and configured to generate at least one differential signal having a rise time and a fall time ; wherein a ratio between the rise time or the fall time and a cycle time of at least one differential signal of the at least one differential signal is less than 10 percent. a differential driver module comprising at least two switching modules and configured to generate at least one differential signal having a rise time and a fall time ; wherein a ratio between the rise time or the fall time and a cycle time of at least one differential signal of the at least one differential signal is less than 10 percent.
System comprising a plurality of local coils for a magnetic resonance tomography system , an energy transmitting device and a clock source , wherein each of the local coils has in each case an energy supply device with an energy store , a clock control system and an energy receiving device for the wireless reception of energy from the energy transmitting device , wherein the clock control system is configured to be synchronised with the clock source and the clock control system has a signal connection with the energy supply device and is configured to control energy take-up via the energy receiving device in dependence on the synchronisation, characterised in that , the clock source is configured to transmit synchronisation information to the clock control systems of the local coils such that only a genuine subset of the local coils simultaneously takes up energy via the energy receiving device.
An assembly for evacuating the roof air , comprising at least one flange tile comprising an air outlet orifice , and a connection device cooperating with said flange tile , said connection device comprising: - at least one connection sleeve comprising a first end configured to cooperate with the flange tile and a second end configured to cooperate with a building air outlet , - at least one insulating tube at least partially covering the connection sleeve , characterized in that the connection device further comprises a clamping element mounted at the second end of the connection sleeve , the clamping element being configured to, in the mounted state, exert a force on the insulating tube in the direction of the length of the insulating tube so as to compress said insulating tube at least partially inside the flange tile , facing the first end of the connection sleeve and in that the connection sleeve comprises a body and a flange positioned on the first end of the connection sleeve . - at least one connection sleeve comprising a first end configured to cooperate with the flange tile and a second end configured to cooperate with a building air outlet , - at least one insulating tube at least partially covering the connection sleeve , characterized in that the connection device further comprises a clamping element mounted at the second end of the connection sleeve , the clamping element being configured to, in the mounted state, exert a force on the insulating tube in the direction of the length of the insulating tube so as to compress said insulating tube at least partially inside the flange tile , facing the first end of the connection sleeve and in that the connection sleeve comprises a body and a flange positioned on the first end of the connection sleeve .
Sampling system for processing a liquid sample, comprising - a retrieving module adapted to be fluidically connected to a liquid-source and adapted to retrieve a liquid sample from the liquid-source , - a filling module adapted to fill the retrieved liquid sample into a sampling container for storing a liquid sample, wherein the sampling container is a single use sampling container made of a material that is recyclable, - a storing module adapted to store the sampling container filled with the liquid sample, - a disposal module adapted to discard the liquid sample, wherein the disposal module is adapted to open the sampling container in a destructive way such that the liquid sample is evacuated from the sampling container , wherein the disposal module comprises a liquid drainage adapted to receive the discarded liquid sample, and - a transporter adapted to transport the sampling container filled or not filled with a liquid sample between at least the retrieving module , the filling module , the storing module and the disposal module . - a retrieving module adapted to be fluidically connected to a liquid-source and adapted to retrieve a liquid sample from the liquid-source , - a filling module adapted to fill the retrieved liquid sample into a sampling container for storing a liquid sample, wherein the sampling container is a single use sampling container made of a material that is recyclable, - a storing module adapted to store the sampling container filled with the liquid sample, - a disposal module adapted to discard the liquid sample, wherein the disposal module is adapted to open the sampling container in a destructive way such that the liquid sample is evacuated from the sampling container , wherein the disposal module comprises a liquid drainage adapted to receive the discarded liquid sample, and - a transporter adapted to transport the sampling container filled or not filled with a liquid sample between at least the retrieving module , the filling module , the storing module and the disposal module .
A method of manufacturing a steel cord or a single steel wire having excellent straightness quality for reinforcing tire, the method comprising: preparing a wire that has been drawn; heating the wire in a state in which tension is applied to the wire ; cooling down the wire ; and winding the wire on a winding portion having a diameter that is greater than a diameter of the wire , wherein a heating temperature in the heating of the wire is 200°C or less, and a cooling temperature in the cooling of the wire is 40°C or less, wherein the heating temperature, a heating time, and the tension applied to the wire during the heating of the wire satisfy condition A below, condition A: T + 13.67 In(t) + 0.27551 τ ≥ 425, wherein in condition A, T is an absolute temperature K of the heating temperature, t denotes the heating time s, and τ is the tension in Newton applied to the wire (or condition A: T + 13.67 ln(t) + 2.7 τ> 425 wherein in condition A, T is an absolute temperature K of the heating temperature, t denotes the heating time s, and τ is the tension (kgf) applied to the wire ), wherein the method further comprising measuring straightness by fixing an end of the wire that has been wound on the winding portion for six months to one year at a point and pulling down the wire vertically to 400 mm, wherein, in the measuring of the straightness, a distance between a first axis that is perpendicular to the point and an opposite end of the wire is 30 mm or less. preparing a wire that has been drawn; heating the wire in a state in which tension is applied to the wire ; cooling down the wire ; and winding the wire on a winding portion having a diameter that is greater than a diameter of the wire , wherein a heating temperature in the heating of the wire is 200°C or less, and a cooling temperature in the cooling of the wire is 40°C or less, wherein the heating temperature, a heating time, and the tension applied to the wire during the heating of the wire satisfy condition A below, condition A: T + 13.67 In(t) + 0.27551 τ ≥ 425, wherein in condition A, T is an absolute temperature K of the heating temperature, t denotes the heating time s, and τ is the tension in Newton applied to the wire (or condition A: T + 13.67 ln(t) + 2.7 τ> 425 wherein in condition A, T is an absolute temperature K of the heating temperature, t denotes the heating time s, and τ is the tension (kgf) applied to the wire ), wherein the method further comprising measuring straightness by fixing an end of the wire that has been wound on the winding portion for six months to one year at a point and pulling down the wire vertically to 400 mm, wherein, in the measuring of the straightness, a distance between a first axis that is perpendicular to the point and an opposite end of the wire is 30 mm or less.