mhurhangee/patent-ind-claim-en huggingface dataset:
A method of controlling an aircraft , the method comprising: tracking , using at least one sensor , one of an input by a pilot or a biometric parameter of a pilot during flight of the aircraft ; determining , using a controller that is operatively connected to the at least one sensor , a lack of attention by the pilot or a depth of sleep of the pilot based on the biometric parameter; allowing a predetermined amount of lack of attention by the pilot or controlled rest, wherein the allowed predetermined amount of lack of attention or controlled rest allows for short absences and deliberate losses of attention; controlling at least one system of the aircraft when the determined lack of attention or determined depth of sleep satisfies a predetermined threshold; identifying a portion of a flight plan of the aircraft where the lack of attention or controlled rest is allowable; and providing an indication within a cockpit of the aircraft that the lack of attention or controlled rest is allowable. tracking , using at least one sensor , one of an input by a pilot or a biometric parameter of a pilot during flight of the aircraft ; determining , using a controller that is operatively connected to the at least one sensor , a lack of attention by the pilot or a depth of sleep of the pilot based on the biometric parameter; allowing a predetermined amount of lack of attention by the pilot or controlled rest, wherein the allowed predetermined amount of lack of attention or controlled rest allows for short absences and deliberate losses of attention; controlling at least one system of the aircraft when the determined lack of attention or determined depth of sleep satisfies a predetermined threshold; identifying a portion of a flight plan of the aircraft where the lack of attention or controlled rest is allowable; and providing an indication within a cockpit of the aircraft that the lack of attention or controlled rest is allowable.
A method for producing a seamless metal pipe using a piercing machine including a plurality of skew rolls and a plug arranged between the plurality of skew rolls, the method comprising the steps of: preparing a billet having a diameter B (mm), heating the billet, forming, in a center part of a rear end of the heated billet, a hole including four grooves extending in an axial direction of the billet, the grooves each having a groove width D (mm) satisfying Formula , a groove height H (mm) satisfying Formula and a groove depth L1 (mm) satisfying Formula , and subjecting the billet provided with the hole to piercing-rolling from a front end by means of the piercing machine; 0.12 ≤ D / B ≤ 0.25 0.10 ≤ H / B ≤ 0.20 0.05 ≤ L 1 / B < 0.10 preparing a billet having a diameter B (mm), heating the billet, forming, in a center part of a rear end of the heated billet, a hole including four grooves extending in an axial direction of the billet, the grooves each having a groove width D (mm) satisfying Formula , a groove height H (mm) satisfying Formula and a groove depth L1 (mm) satisfying Formula , and subjecting the billet provided with the hole to piercing-rolling from a front end by means of the piercing machine; 0.12 ≤ D / B ≤ 0.25 0.10 ≤ H / B ≤ 0.20 0.05 ≤ L 1 / B < 0.10
An interface circuit comprising: an encrypting unit which encrypts a first signal including a clock component, wherein the first signal is an audio signal; a first transmitting unit which transmits the encrypted first signal to an external device through a transmission path as a differential signal; a second transmitting unit which superimposes a second signal including a clock component on the transmission path as an in-phase signal to transmit to the external device; a state notifying unit which communicates with the external device through a pair of differential transmission paths included in the transmission path and notifies the external device of a connection state of its own device by a DC bias potential of at least one of the pair of differential transmission paths; and a communication unit which performs communication for encrypting the first signal and decrypting the encrypted first signal with the external device by key exchange through a second transmission path different from the transmission path; wherein the transmission path comprises a utility line and a hot plug detect line of an HDMI cable, and the second transmission path comprises a display data channel (DDC) of the HDMI cable. an encrypting unit which encrypts a first signal including a clock component, wherein the first signal is an audio signal; a first transmitting unit which transmits the encrypted first signal to an external device through a transmission path as a differential signal; a second transmitting unit which superimposes a second signal including a clock component on the transmission path as an in-phase signal to transmit to the external device; a state notifying unit which communicates with the external device through a pair of differential transmission paths included in the transmission path and notifies the external device of a connection state of its own device by a DC bias potential of at least one of the pair of differential transmission paths; and a communication unit which performs communication for encrypting the first signal and decrypting the encrypted first signal with the external device by key exchange through a second transmission path different from the transmission path; wherein the transmission path comprises a utility line and a hot plug detect line of an HDMI cable, and the second transmission path comprises a display data channel (DDC) of the HDMI cable.
A ferroelectric thin-film laminated substrate , comprising a substrate , and further comprising a lower electrode layer , a ferroelectric thin-film layer , an upper electrode adhesive layer , and an upper electrode layer being sequentially stacked on the substrate, wherein: the lower electrode layer is made of platinum or a platinum alloy; the ferroelectric thin-film layer is made of a sodium potassium niobate with the chemical formula of (K 1-x Na x )NbO 3 , 0.4 ≤ x ≤ 0.7; the upper electrode layer is made of gold; the upper electrode adhesive layer is made of a metal that has less oxidizability than titanium and can make a solid solution alloy without generating an intermetallic compound with gold; and a part of the upper electrode adhesive layer and a part of the upper electrode layer are alloyed; and characterized in that the upper electrode adhesive layer is made of one selected from nickel, cobalt, tungsten, and molybdenum. the lower electrode layer is made of platinum or a platinum alloy; the ferroelectric thin-film layer is made of a sodium potassium niobate with the chemical formula of (K 1-x Na x )NbO 3 , 0.4 ≤ x ≤ 0.7; the upper electrode layer is made of gold; the upper electrode adhesive layer is made of a metal that has less oxidizability than titanium and can make a solid solution alloy without generating an intermetallic compound with gold; and a part of the upper electrode adhesive layer and a part of the upper electrode layer are alloyed; and characterized in that the upper electrode adhesive layer is made of one selected from nickel, cobalt, tungsten, and molybdenum.
A method for wireless communication performed at a second wireless communication device , comprising: receiving , from a first wireless communication device , a clear to send signal , the clear to send signal indicating a receiver spatial filter of the first wireless communication device ; determining a transmit precoder based at least in part on the receiver spatial filter of the first wireless communication device ; precoding a request to send signal based at least in part on the transmit precoder ; transmitting , to a third wireless communication device , the precoded request to send signal on a shared radio frequency spectrum band; characterized by further comprising: determining a rank of the clear to send signal ; identifying a remaining rank for data communications based on the rank of the clear to send signal and a rank of a link for communications between the second wireless communication device and the third wireless communication device ; and transmitting a data signal to the third wireless communication device , the data signal having the remaining rank. receiving , from a first wireless communication device , a clear to send signal , the clear to send signal indicating a receiver spatial filter of the first wireless communication device ; determining a transmit precoder based at least in part on the receiver spatial filter of the first wireless communication device ; precoding a request to send signal based at least in part on the transmit precoder ; transmitting , to a third wireless communication device , the precoded request to send signal on a shared radio frequency spectrum band; characterized by further comprising: determining a rank of the clear to send signal ; identifying a remaining rank for data communications based on the rank of the clear to send signal and a rank of a link for communications between the second wireless communication device and the third wireless communication device ; and transmitting a data signal to the third wireless communication device , the data signal having the remaining rank. determining a rank of the clear to send signal ; identifying a remaining rank for data communications based on the rank of the clear to send signal and a rank of a link for communications between the second wireless communication device and the third wireless communication device ; and transmitting a data signal to the third wireless communication device , the data signal having the remaining rank.
A detachable system for assembling and joining pieces for mounting structures and parts thereof, wherein the system includes a set composed of a plurality of components capable of being detachably assembled into structures of any kind, and parts thereof, containing transoms, characterised in that said set of components of the system includes the following basic elements: - pairs of support plates , generally flat, designed with one or more passthrough holes conformed in accordance with the formal characteristics (square, rectangular, circular, elliptical) of other transoms to be received, and dimensioned to house, with slight clearance, the aforementioned transoms , wherein each passthrough hole has, in two confronting and diametrically opposed positions, a respective recess with a previously established width and height; - anchoring and mooring plates , consisting of generally flat pieces which, in the proximity of each of its ends, have pairs of slits (6, 6'; 7, 7'), extending from each lateral edge towards the interior and respectively confronting those of each pair, determining a distance in a transversal direction between those of each pair (6, 6'; 7, 7') and a distance in a longitudinal direction between the slits (6, 7; 6', 7') of each side, of known values, wherein each of the anchoring and mooring plates also includes one or more holes in centred, threaded or non-threaded positions; and - wherein the transoms include a variable number of passthrough holes intended to confront the respective holes of the anchoring and mooring plates in each of the positions. - pairs of support plates , generally flat, designed with one or more passthrough holes conformed in accordance with the formal characteristics (square, rectangular, circular, elliptical) of other transoms to be received, and dimensioned to house, with slight clearance, the aforementioned transoms , wherein each passthrough hole has, in two confronting and diametrically opposed positions, a respective recess with a previously established width and height; - anchoring and mooring plates , consisting of generally flat pieces which, in the proximity of each of its ends, have pairs of slits (6, 6'; 7, 7'), extending from each lateral edge towards the interior and respectively confronting those of each pair, determining a distance in a transversal direction between those of each pair (6, 6'; 7, 7') and a distance in a longitudinal direction between the slits (6, 7; 6', 7') of each side, of known values, wherein each of the anchoring and mooring plates also includes one or more holes in centred, threaded or non-threaded positions; and - wherein the transoms include a variable number of passthrough holes intended to confront the respective holes of the anchoring and mooring plates in each of the positions.
Endoscope comprising: an endoscope handle or interface; and an insertion cord configured to be inserted into a patient's body cavity and comprising an actively bendable bending section ; the bending section comprising a plurality of bending segments including a proximal end segment , a plurality of intermediate segments and a distal end segment ; the plurality of intermediate segments being separate annular or tubular segments made from a polymer material and having an outer circumferential side or surface and an inner circumferential side or surface ; the plurality of intermediate segments comprising a plurality of first intermediate segments (A) and a plurality of second intermediate segments (B) being arranged alternately one after the other in a proximal-distal direction; wherein hinges between the first intermediate segments (A) and the second intermediate segments (B) are formed by hinge protrusions engaging in hinge recesses ; wherein steering wires run on the inner circumferential side or surface of the first intermediate segments (A) and on the outer circumferential side or surface in axially extending grooves of the second intermediate segments (B) and keep the alternately arranged first intermediate segments (A) and second intermediate segments (B) together; and wherein the first intermediate segments (A) comprise stabilizing protrusions arranged and accommodated in the axially extending grooves of the second intermediate segments (B), in which the steering wires run. an endoscope handle or interface; and an insertion cord configured to be inserted into a patient's body cavity and comprising an actively bendable bending section ; the bending section comprising a plurality of bending segments including a proximal end segment , a plurality of intermediate segments and a distal end segment ; the plurality of intermediate segments being separate annular or tubular segments made from a polymer material and having an outer circumferential side or surface and an inner circumferential side or surface ; the plurality of intermediate segments comprising a plurality of first intermediate segments (A) and a plurality of second intermediate segments (B) being arranged alternately one after the other in a proximal-distal direction; wherein hinges between the first intermediate segments (A) and the second intermediate segments (B) are formed by hinge protrusions engaging in hinge recesses ; wherein steering wires run on the inner circumferential side or surface of the first intermediate segments (A) and on the outer circumferential side or surface in axially extending grooves of the second intermediate segments (B) and keep the alternately arranged first intermediate segments (A) and second intermediate segments (B) together; and wherein the first intermediate segments (A) comprise stabilizing protrusions arranged and accommodated in the axially extending grooves of the second intermediate segments (B), in which the steering wires run.
A method performed by a delivery node operative to adjust chunk size, the delivery node corresponding to a cache server, the method comprising: determining at least one measured performance characteristic associated with the network (S100); dynamically adjusting a chunk size for caching each of a plurality of segments of at least a portion of content, the dynamic adjustment of the chunk size being based on the at least one measured performance characteristic associated with the network (S104); and causing transmission of a content request, according to the dynamic adjustment of the chunk size, for at least one segment of the plurality of segments of at least the portion of the content (S105); the method further comprising receiving a client request for the content; and the dynamic adjustment of the chunk size for caching each of the plurality of segments of at least the portion of the content being based on a number of client requests received for the content. determining at least one measured performance characteristic associated with the network (S100); dynamically adjusting a chunk size for caching each of a plurality of segments of at least a portion of content, the dynamic adjustment of the chunk size being based on the at least one measured performance characteristic associated with the network (S104); and causing transmission of a content request, according to the dynamic adjustment of the chunk size, for at least one segment of the plurality of segments of at least the portion of the content (S105); the method further comprising receiving a client request for the content; and the dynamic adjustment of the chunk size for caching each of the plurality of segments of at least the portion of the content being based on a number of client requests received for the content.
Cooker hood, comprising a mains supply terminal , one or more lighting elements , a lighting element driver connected to the mains supply terminal and the one or more lighting elements , and an electronically commuted (EC) motor driving a fan, characterized in that a power supply terminal of the EC motor is directly connected to the mains supply terminal and a control terminal of the EC motor is connected to a control unit , wherein the control unit is connected to a power supply output of the lighting element driver .
A method of predicting network throughputs in a telecommunication network for a user terminal device, UE, to be connected to the telecommunication network for predetermined future geo-coordinates and a predetermined future time at which the UE will be located at the predetermined future geo-coordinates, the method comprising the steps of: A) receiving a user data set comprising information about the predetermined future time, the predetermined future geo-coordinates and an LTE category of the UE; B) determining an LTE band prediction for an LTE band to which the UE will be connected at the predetermined future time; and C) calculating a prediction of download, DL, and upload, UL, network throughputs between the telecommunication network and the user terminal device, in a machine learning, ML, system trained on historical data sets, based on the user data set and the LTE band prediction; wherein the prediction for an LTE band in step B) to which the UE will be connected at the predetermined future time is determined from a) a first data set relating to the bands available at the predetermined future geo-coordinates, wherein an average is subsequently formed; and/or b) a second data set relating to the band with the highest frequency available at the predetermined future geo-coordinates. A) receiving a user data set comprising information about the predetermined future time, the predetermined future geo-coordinates and an LTE category of the UE; B) determining an LTE band prediction for an LTE band to which the UE will be connected at the predetermined future time; and C) calculating a prediction of download, DL, and upload, UL, network throughputs between the telecommunication network and the user terminal device, in a machine learning, ML, system trained on historical data sets, based on the user data set and the LTE band prediction; wherein the prediction for an LTE band in step B) to which the UE will be connected at the predetermined future time is determined from a) a first data set relating to the bands available at the predetermined future geo-coordinates, wherein an average is subsequently formed; and/or b) a second data set relating to the band with the highest frequency available at the predetermined future geo-coordinates. a) a first data set relating to the bands available at the predetermined future geo-coordinates, wherein an average is subsequently formed; and/or b) a second data set relating to the band with the highest frequency available at the predetermined future geo-coordinates.
An implantable device having a cathode region , a sacrificial anode region , and an antenna region , said implantable device comprising: a first configuration, and a second configuration wherein electrolytic degradation of said sacrificial anode region transforms said implantable device from said first configuration to said second configuration, and wherein said electrolytic degradation is initiated by the formation of an electrolytic cell, said electrolytic cell comprising a diode and a capacitor and being formed when said antenna region remotely receives electrical energy from an external transmitter device. a first configuration, and a second configuration wherein electrolytic degradation of said sacrificial anode region transforms said implantable device from said first configuration to said second configuration, and wherein said electrolytic degradation is initiated by the formation of an electrolytic cell, said electrolytic cell comprising a diode and a capacitor and being formed when said antenna region remotely receives electrical energy from an external transmitter device.
A therapeutic peptide T specific immune therapy composition for use in the treatment of a cancer of an Human Leukocyte Antigen A2 (HLA-A2) positive patient, wherein the therapeutic peptide T specific immune therapy composition comprises the peptides aKXVAAWTLKAAa (SEQ ID No 10), with X and a respectively indicating cyclohexylalanine and d-alanine, RLLQETELV (SEQ ID No 1), YLQLVFGIEV (SEQ ID No 2), LLTFWNPPV (SEQ ID No 3), KVFGSLAFV (SEQ ID No 4), KLBPVQLWV (SEQ ID No 5), with B indicating α-aminoisobutyric acid, SMPPPGTRV (SEQ ID No 6), IMIGHLVGV (SEQ ID No 7), KVAEIVHFL (SEQ ID No 8), and YLSGADLNL (SEQ ID No 9), and wherein said treatment comprises a priming period consisting in three administrations of said therapeutic peptide T specific immune therapy composition, at one administration every one-to-four weeks, thereby inducing a central memory T cell response, wherein, in said treatment, the priming period is followed by a maintenance period during which the administration of said therapeutic peptide T specific immune therapy composition occurs every two-to-eight months, preferably every two-to-three months, more preferably every two months for one year and then every three months for one year.