mhurhangee/patent-ind-claim-en huggingface dataset:
Electric motor system , in particular for a motor vehicle , - having an electric motor which has at least four coils , which during operation drive a motor shaft of the electric motor , - having a power electronics for the electrical supply of the coils , - having a control device for controlling the electric motor system , - wherein the power electronics have respectively one associated bridging circuit for at least four of the at least four coils , such that these at least four coils are supplied by the power electronics independently of one another characterised in that the control device is configured such that it determines a power requirement made of the electric motor and reduces the electrical supply of at least one of the coils when the power delivered by the electric motor is above the power requirement. - having an electric motor which has at least four coils , which during operation drive a motor shaft of the electric motor , - having a power electronics for the electrical supply of the coils , - having a control device for controlling the electric motor system , - wherein the power electronics have respectively one associated bridging circuit for at least four of the at least four coils , such that these at least four coils are supplied by the power electronics independently of one another
A method of operating a chemical vapor infiltration apparatus to produce an orthopedic implant, the method comprising the steps of: placing a porous substrate into a reaction chamber of the chemical vapor infiltration apparatus, the reaction chamber defined by an upper end , a lower end and a cylindrical side wall extending between the upper and lower end; exposing the porous substrate to a first gas and a second gas in the reaction chamber , the first gas flowing upwardly into the chamber and the second gas flowing downwardly into the reaction chamber, wherein the first and second gas react in the reaction chamber to deposit a biocompatible metal onto the porous substrate ; and varying a vacuum level in the reaction chamber during the exposing step. placing a porous substrate into a reaction chamber of the chemical vapor infiltration apparatus, the reaction chamber defined by an upper end , a lower end and a cylindrical side wall extending between the upper and lower end; exposing the porous substrate to a first gas and a second gas in the reaction chamber , the first gas flowing upwardly into the chamber and the second gas flowing downwardly into the reaction chamber, wherein the first and second gas react in the reaction chamber to deposit a biocompatible metal onto the porous substrate ; and varying a vacuum level in the reaction chamber during the exposing step.
A brake control device for a motorcycle , including a deceleration estimating unit configured to estimate deceleration (A) of a vehicle, a bank angle estimating unit configured to estimate a bank angle (α) of the vehicle, and a slip preventing unit configured to detect slip (S) of a wheel (24 or 26) and to control a brake (20 or 22) of the vehicle to limit the slip (S) to a predetermined range; wherein the brake control device further comprises: a deceleration limiting unit configured to control the brake (20 or 22) to limit the deceleration (A) to a predetermined range based on the estimated bank angle (a) ; characterised in that the deceleration limiting unit limits the deceleration (A) to the predetermined range by using a map in which the bank angle (α) and a threshold of the deceleration (A) are associated with each other for speeds of the motorcycle. a deceleration limiting unit configured to control the brake (20 or 22) to limit the deceleration (A) to a predetermined range based on the estimated bank angle (a) ; characterised in that the deceleration limiting unit limits the deceleration (A) to the predetermined range by using a map in which the bank angle (α) and a threshold of the deceleration (A) are associated with each other for speeds of the motorcycle.
A movable base comprising: a first frame assembly including a plurality of wheels ; a second frame assembly coupled with the first frame assembly and including a plurality of feet ; a screw actuator including a screw member and a screw plate ; characterized in that the screw actuator is coupled with a lever of the second frame assembly such that rotation of the screw member in a first direction actuates the lever to cause the feet to translate downward relative to the wheels and wherein translation of the feet downward lifts the wheels off a ground surface, and rotation of the screw member in a second direction actuates the lever to cause the feet to translate upward relative to the wheels allowing the weight of the moveable base to cause the wheels to contact the ground surface; and in that in a fixed configuration, the feet are at or below a lowermost level of the wheels and in a movable configuration the feet are raised above a lowermost surface of the wheels . a first frame assembly including a plurality of wheels ; a second frame assembly coupled with the first frame assembly and including a plurality of feet ; a screw actuator including a screw member and a screw plate ; characterized in that the screw actuator is coupled with a lever of the second frame assembly such that rotation of the screw member in a first direction actuates the lever to cause the feet to translate downward relative to the wheels and wherein translation of the feet downward lifts the wheels off a ground surface, and rotation of the screw member in a second direction actuates the lever to cause the feet to translate upward relative to the wheels allowing the weight of the moveable base to cause the wheels to contact the ground surface; and in that in a fixed configuration, the feet are at or below a lowermost level of the wheels and in a movable configuration the feet are raised above a lowermost surface of the wheels .
A composition comprising: 1) a single stranded or double stranded siRNA; 2) one or more tetraGalNAc ligands of Formula (I), (II) or (III), which may be the same or different: wherein X is -O-, -S-, -CR 1 R 2 - or -NR 1 -, wherein R 1 and R 2 are each independently selected from the group consisting of hydrogen and C1-C6alkyl; n is 1, 2, 3, or 4; and the bond with "∼∼∼" indicates the point of attachment; 3) one or more linkers, which may be the same or different; and 4) one or more peptides independently selected from SEQ ID NO: 1-474, wherein the tetraGalNAc ligands are attached to the siRNA, via said linkers, at different 2'-positions of the ribose rings and/or at different terminal 3'- and/or 5'-positions of the siRNA, and wherein said linkers are attached to the siRNA at different 2'-positions of the ribose rings and/or at different terminal 3'- and/or 5'-positions of the siRNA, and wherein the peptides are attached to the siRNA at different 2'-positions of the ribose rings and/or at different terminal 3' and/or 5'-positions of the siRNA; and wherein the peptides are attached to the siRNA via linkers. 1) a single stranded or double stranded siRNA; 2) one or more tetraGalNAc ligands of Formula (I), (II) or (III), which may be the same or different: wherein X is -O-, -S-, -CR 1 R 2 - or -NR 1 -, wherein R 1 and R 2 are each independently selected from the group consisting of hydrogen and C1-C6alkyl; n is 1, 2, 3, or 4; and the bond with "∼∼∼" indicates the point of attachment; 3) one or more linkers, which may be the same or different; and 4) one or more peptides independently selected from SEQ ID NO: 1-474, wherein the tetraGalNAc ligands are attached to the siRNA, via said linkers, at different 2'-positions of the ribose rings and/or at different terminal 3'- and/or 5'-positions of the siRNA, and wherein said linkers are attached to the siRNA at different 2'-positions of the ribose rings and/or at different terminal 3'- and/or 5'-positions of the siRNA, and wherein the peptides are attached to the siRNA at different 2'-positions of the ribose rings and/or at different terminal 3' and/or 5'-positions of the siRNA; and wherein the peptides are attached to the siRNA via linkers.
A converter circuit (400; 400a, 400b, 400c) for receiving signals from one or more current transformers and outputting a signal to a circuit breaker trip unit , the converter circuit comprising: an input component that is electrically connected to receive an output signal from each of one or more current transformers of a circuit breaker ; a burden resistor that is electrically connected across a coil of the input component; a passive differentiator that is electrically connected across the burden resistor, wherein the passive differentiator comprises a resistor and a capacitor ; and an output that is configured to deliver, from the passive differentiator during operation, a converted output voltage that is proportional to a time rate of change of a signal that is received by the input component; characterized in that the converter circuit further comprises an inductor that has one end that is electrically connected to a circuit reference and serves to add phase shift lost at a high end of an operating range of the converter circuit (400; 400a, 400b, 400c). an input component that is electrically connected to receive an output signal from each of one or more current transformers of a circuit breaker ; a burden resistor that is electrically connected across a coil of the input component; a passive differentiator that is electrically connected across the burden resistor, wherein the passive differentiator comprises a resistor and a capacitor ; and an output that is configured to deliver, from the passive differentiator during operation, a converted output voltage that is proportional to a time rate of change of a signal that is received by the input component; characterized in that the converter circuit further comprises an inductor that has one end that is electrically connected to a circuit reference and serves to add phase shift lost at a high end of an operating range of the converter circuit (400; 400a, 400b, 400c).
A method to produce a water solution of urea with a variable concentration inside a tank for an exhaust system provided with exhaust gas after-treatment for a combustion engine ; said exhaust system comprises an exhaust pipe and a pumping device , which is buried inside the tank and draws from the tank so as to feed a water solution of urea under pressure to an electromagnetic injector designed to inject the water solution of urea under pressure into the exhaust pipe ; and the tank is divided, on the inside, into a first urea powder storing area (A), a second water collecting area (B) and a third area (C) in communication with the first area (A) and the second area (B), where the water solution of urea with a variable concentration is mixed; the method comprising: - acquiring a plurality of first parameters comprising the ambient temperature (T AMB ); the desired autonomy (A); the quantity (M C ) of water solution of urea already contained in the third area (C); the quantity (M B ) of water already contained in the second area (B); and the urea powder (M A ) stored in the first area (A); - based on the first parameters, determining the target concentration value (C TARGET ) of the water solution of urea; - acquiring a plurality of second parameters comprising the temperature (T B ) in the second area (B), the quantity (M C ) of water solution of urea already contained in the third area (C), the quantity (M B ) of water already contained in the second area (B), and the real concentration value (C REAL ) of the water solution of urea in the third area (C); - based on the second parameters, determining the target quantity (M B_TARGET ) of water in the second area (B) and the target quantity (M A_TARGET ) of urea in the first area (A) to be introduced into the third area (C) in order to obtain the target concentration value (C TARGET ) of the water solution of urea. - acquiring a plurality of first parameters comprising the ambient temperature (T AMB ); the desired autonomy (A); the quantity (M C ) of water solution of urea already contained in the third area (C); the quantity (M B ) of water already contained in the second area (B); and the urea powder (M A ) stored in the first area (A); - based on the first parameters, determining the target concentration value (C TARGET ) of the water solution of urea; - acquiring a plurality of second parameters comprising the temperature (T B ) in the second area (B), the quantity (M C ) of water solution of urea already contained in the third area (C), the quantity (M B ) of water already contained in the second area (B), and the real concentration value (C REAL ) of the water solution of urea in the third area (C); - based on the second parameters, determining the target quantity (M B_TARGET ) of water in the second area (B) and the target quantity (M A_TARGET ) of urea in the first area (A) to be introduced into the third area (C) in order to obtain the target concentration value (C TARGET ) of the water solution of urea.
A communication method, comprising: determining, by a terminal device, whether to preferentially transmit a Scheduling Request, SR, to a network device when a Physical Uplink Control Channel, PUCCH, resource for the terminal device to transmit the SR and a Physical Uplink Shared Channel, PUSCH, resource to transmit a first Media Access Control, MAC, Protocol Data Unit, PDU, are overlapped , characterized in that the method further comprises: determining, by the terminal device, not to package the first MAC PDU when the terminal device determines to preferentially transmit the SR and the first MAC PDU is not packaged, wherein determining, by the terminal device, not to package the first MAC PDU comprises: determining, by the terminal device, not to package the first MAC PDU if a priority of a logical channel triggering the SR is higher than or equal to a priority of a logical channel corresponding to the first MAC PDU. determining, by a terminal device, whether to preferentially transmit a Scheduling Request, SR, to a network device when a Physical Uplink Control Channel, PUCCH, resource for the terminal device to transmit the SR and a Physical Uplink Shared Channel, PUSCH, resource to transmit a first Media Access Control, MAC, Protocol Data Unit, PDU, are overlapped , characterized in that the method further comprises: determining, by the terminal device, not to package the first MAC PDU when the terminal device determines to preferentially transmit the SR and the first MAC PDU is not packaged, wherein determining, by the terminal device, not to package the first MAC PDU comprises: determining, by the terminal device, not to package the first MAC PDU if a priority of a logical channel triggering the SR is higher than or equal to a priority of a logical channel corresponding to the first MAC PDU. determining, by the terminal device, not to package the first MAC PDU when the terminal device determines to preferentially transmit the SR and the first MAC PDU is not packaged, wherein determining, by the terminal device, not to package the first MAC PDU comprises: determining, by the terminal device, not to package the first MAC PDU if a priority of a logical channel triggering the SR is higher than or equal to a priority of a logical channel corresponding to the first MAC PDU.
A transmission device comprising: an encoding unit configured to encode each picture constituting moving image data of a first frame rate at a second frame rate larger than the first frame rate to obtain a video stream of the second frame rate; an information insertion unit configured to insert identification information into encoded image data of each picture constituting the video stream of the second frame rate, wherein the identification information indicates for each picture constituting the video stream of the second frame rate whether the display start timing of the respective picture constituting the video stream of the second frame rate is in synchronization, advanced or delayed with respect to a display start timing at the first frame rate; and a transmission unit configured to transmit the video stream of the second frame rate in which the identification information is inserted. an encoding unit configured to encode each picture constituting moving image data of a first frame rate at a second frame rate larger than the first frame rate to obtain a video stream of the second frame rate; an information insertion unit configured to insert identification information into encoded image data of each picture constituting the video stream of the second frame rate, wherein the identification information indicates for each picture constituting the video stream of the second frame rate whether the display start timing of the respective picture constituting the video stream of the second frame rate is in synchronization, advanced or delayed with respect to a display start timing at the first frame rate; and a transmission unit configured to transmit the video stream of the second frame rate in which the identification information is inserted.
A retractable brake wear component, comprising: a linear position sensor disposed within a housing and configured to contact a pressure plate of a brake mechanism during an activated state; a bias element coupled to the linear position sensor and configured to bias the linear position sensor a distance away from the pressure plate during a deactivated state; and an actuating mechanism coupled to the linear position sensor and configured to translate the linear position sensor toward the pressure plate during the activated state. a linear position sensor disposed within a housing and configured to contact a pressure plate of a brake mechanism during an activated state; a bias element coupled to the linear position sensor and configured to bias the linear position sensor a distance away from the pressure plate during a deactivated state; and an actuating mechanism coupled to the linear position sensor and configured to translate the linear position sensor toward the pressure plate during the activated state.
Thermostatic valve for an internal combustion engine, having a housing which has at least three connections , namely an engine connection for connection to an engine cooling system, a cooler connection for connection to a cooler and a bypass connection for connection to a bypass, a hollow spherical valve element which is rotatably mounted about an axis of rotation in the housing between two end positions, wherein the valve element is spherical segment-shaped or spherical shell-shaped and has only one single opening , characterised in that - a sealing arrangement adapted to the spherical shape is provided which has a sliding ring made of slidable plastic, in particular polytetrafluoroethylene, which is pre-stressed against the valve element by an elastomeric sealing ring , - a toggle lever mechanism which moves the valve element is provided as a lever mechanism , via which the valve element bears against the sliding ring only in its sealing end position, but is first lifted off by the sliding ring or placed thereon during an opening or closing operation. - a sealing arrangement adapted to the spherical shape is provided which has a sliding ring made of slidable plastic, in particular polytetrafluoroethylene, which is pre-stressed against the valve element by an elastomeric sealing ring , - a toggle lever mechanism which moves the valve element is provided as a lever mechanism , via which the valve element bears against the sliding ring only in its sealing end position, but is first lifted off by the sliding ring or placed thereon during an opening or closing operation.
A transport system comprising: a track provided extending over a plurality of areas (Aa, Ab, Ac); a plurality of transport vehicles traveling along the track; an area controller having one of the areas as a control area and controlling the transport vehicles within the control area; a buffer provided at a position to and from which a transport vehicle within the control areas is allowed to transfer an article and on which the article can be temporarily placed; and a host controller transmitting to the area controller a transport command causing the transport vehicle to convey the article , wherein the area controller , when the number of the transport vehicle: present within the control area is a prescribed number set in advance and when receiving a first transport command for conveying the article from a transfer port of the article for a processing apparatus within the control area to a transport destination outside the control area from the host controller , stores therein the first transport command and transmits to the host controller a report indicating that the first transport command is not capable of being assigned to the transport vehicle, and the host controller , when receiving the report from the area controller , when a buffer that is capable of placing the article is available, transmits a command for deleting the stored first transport command to the area controller generates a second transport command for conveying the article from the transfer port to the butter , and transmits the second transport command to the area controller . a track provided extending over a plurality of areas (Aa, Ab, Ac); a plurality of transport vehicles traveling along the track; an area controller having one of the areas as a control area and controlling the transport vehicles within the control area; a buffer provided at a position to and from which a transport vehicle within the control areas is allowed to transfer an article and on which the article can be temporarily placed; and a host controller transmitting to the area controller a transport command causing the transport vehicle to convey the article , wherein the area controller , when the number of the transport vehicle: present within the control area is a prescribed number set in advance and when receiving a first transport command for conveying the article from a transfer port of the article for a processing apparatus within the control area to a transport destination outside the control area from the host controller , stores therein the first transport command and transmits to the host controller a report indicating that the first transport command is not capable of being assigned to the transport vehicle, and the host controller , when receiving the report from the area controller , when a buffer that is capable of placing the article is available, transmits a command for deleting the stored first transport command to the area controller generates a second transport command for conveying the article from the transfer port to the butter , and transmits the second transport command to the area controller .
A motorised articulating probe head comprising a first mount for mounting on a support and a second mount onto which a surface sensing device may be mounted, the second mount being rotatable relative to the first mount about one or more axis (A1, A2), characterised in that the articulated probe head is provided with at least one non-incremental mechanical brake to lock the position of the second mount relative to the first mount about at least one axis and whereby at least one position measuring device (T2, 190) is provided to determine the position of the second mount relative to the first mount about said at least one axis in the locked position.