mhurhangee/patent-ind-claim-en huggingface dataset:
Missile having a device for locking and/or unlocking a component locked by a catch , - having the at least one catch , which can be moved between a blocking position (PB) that locks the component and a release position (PF) that releases the component , - having a pyrotechnic force element with an output , which, in response to a trigger signal (SA), can be moved pyrotechnically out of a passive position (PP) into an active position (PA), - having a coupling element , by means of which at least one of the catches can be coupled to the output in terms of movement in such a way that a mechanical movement of the catch from the blocking position (PB) into the release position (PF) results from a movement of the output from the passive position (PP) into the active position (PA) or vice versa, wherein the force element has a main body , and the output can be moved relative to the main body between the passive position (PP) and the active position (PA), and characterized in that the device contains at least one support which is fixed relative to the main body and on which the coupling element rests, wherein the support is a pivoting and/or sliding point for the movement of the coupling element . - having the at least one catch , which can be moved between a blocking position (PB) that locks the component and a release position (PF) that releases the component , - having a pyrotechnic force element with an output , which, in response to a trigger signal (SA), can be moved pyrotechnically out of a passive position (PP) into an active position (PA), - having a coupling element , by means of which at least one of the catches can be coupled to the output in terms of movement in such a way that a mechanical movement of the catch from the blocking position (PB) into the release position (PF) results from a movement of the output from the passive position (PP) into the active position (PA) or vice versa,
A compound represented by General Formula , exclusive of compound (1-1) below, wherein X 21 to X 25 represent a hydrogen atom or an acyclic or cyclic alkyl group having 1 to 20 carbon atoms, and R 1 represents an acyclic alkyl group having 1 to 20 carbon atoms,
A data packet transmission method, comprising: receiving, by a first node , a data packet and first metadata, wherein the first metadata is used to indicate a service processing result of the data packet by an upstream node of the first node ; determining, by the first node , a first service based on the first metadata, and processing the first service based on the data packet, wherein the first service belongs to one or more unprocessed services of the data packet; and using, by the first node , the first metadata and a processing result of the first service as second metadata, and sending the data packet and the second metadata to a second node , wherein the second metadata comprises a service processing result of the data packet by the first node and the service processing result of the data packet by the upstream node of the first node , wherein the first metadata comprises information about one or more unprocessed services of the data packet, and wherein the first node is any node except a last-hop node in a pipeline of the data packet and the second node is a next-hop node of the first node . receiving, by a first node , a data packet and first metadata, wherein the first metadata is used to indicate a service processing result of the data packet by an upstream node of the first node ; determining, by the first node , a first service based on the first metadata, and processing the first service based on the data packet, wherein the first service belongs to one or more unprocessed services of the data packet; and using, by the first node , the first metadata and a processing result of the first service as second metadata, and sending the data packet and the second metadata to a second node , wherein the second metadata comprises a service processing result of the data packet by the first node and the service processing result of the data packet by the upstream node of the first node , wherein the first metadata comprises information about one or more unprocessed services of the data packet, and wherein the first node is any node except a last-hop node in a pipeline of the data packet and the second node is a next-hop node of the first node .
A fastening system for covering elements, with an anchoring profiled element (5, 5', 5") that can be mounted to a substructure and a clip element (6, 6', 6") that can be mounted to the covering element and can be latched to the anchoring profiled element (5, 5', 5"), wherein the anchoring profiled element (5, 5', 5") has at least one latching protrusion on each of two opposite faces (7, 8; 9, 10) and the clip element (6, 6', 6") has the shape of a U with a central web and two legs , wherein, in the latched position, the clip element (6, 6', 6") engages over the anchoring profiled element (5, 5', 5") in the manner of a clamp and, thereby, each leg latches to a latching protrusion in the manner of a snap hook, characterized in that the end faces of the anchoring profiled element (5, 5', 5") are configured as mutually complementary plug-in connections , by means of each of which two anchoring profiled elements (5, 5', 5") can be plugged together with a press fit in the longitudinal profile direction (R).
A compressed pharmaceutical dosage form comprising one or more active pharmaceutical ingredients present at a concentration between 2 and 60 % w/w based on the total weight of the dosage form, porous particles, wherein the porous particles have a diameter between 1 and 100 μm, as measured by SEM and the porous particles are silica mesoporous particles have a surface area between 200 and 1000 m 2 /g and/or a pore volume between 0.2 and 3 cm 3 /g and/or an average pore size between 2 and 250 nm and the particles are present at a concentration between 5 and 70% w/w based on the total weight of the dosage form and, optionally one or more pharmaceutically acceptable excipients, whereby the one or more active pharmaceutical ingredients is in admixture with and loaded into said particles, whereby a ratio of unloaded versus loaded ingredient is between 100:1 and 1:100, and whereby a porosity of the dosage form is between 5 and 29% as measured by Hg intrusion and/or N 2 sorption, a hardness of the dosage form is more than 5 N and less than 30 N using a Schleuniger type hardness tester, and the friability value is preferably 2% or less. one or more active pharmaceutical ingredients present at a concentration between 2 and 60 % w/w based on the total weight of the dosage form, porous particles, wherein the porous particles have a diameter between 1 and 100 μm, as measured by SEM and the porous particles are silica mesoporous particles have a surface area between 200 and 1000 m 2 /g and/or a pore volume between 0.2 and 3 cm 3 /g and/or an average pore size between 2 and 250 nm and the particles are present at a concentration between 5 and 70% w/w based on the total weight of the dosage form and, optionally one or more pharmaceutically acceptable excipients, whereby the one or more active pharmaceutical ingredients is in admixture with and loaded into said particles, whereby a ratio of unloaded versus loaded ingredient is between 100:1 and 1:100, and whereby a porosity of the dosage form is between 5 and 29% as measured by Hg intrusion and/or N 2 sorption, a hardness of the dosage form is more than 5 N and less than 30 N using a Schleuniger type hardness tester, and the friability value is preferably 2% or less.
A detecting circuit of an external display device , comprising: a first connector ; a display circuit , coupled to the first connector, configured to provide a display signal (S2) to the external display device through the first connector a switch circuit , coupled to the display circuit; a power supply circuit , coupled to the switch circuit, configured to provide power needed for operating the display circuit through the switch circuit when the switch circuit is on; and a control circuit , coupled to the first connector and the switch circuit, configured to detect the external display device through the first connector and to selectively turn on/off the switch circuit according to a detection result of the external display device; wherein, the control circuit turns on the switch circuit upon detecting the external display device to connect the power supply circuit to the display circuit; characterised in that , after the switch circuit is turned on, the control circuit further accumulates a duration or a number of times of detection that the external display device is continually not detected, and then turns off the switch circuit to disconnect the power circuit from the display circuit when the duration reaches a time threshold or the number of times of detection reaches a count threshold. a first connector ; a display circuit , coupled to the first connector, configured to provide a display signal (S2) to the external display device through the first connector a switch circuit , coupled to the display circuit; a power supply circuit , coupled to the switch circuit, configured to provide power needed for operating the display circuit through the switch circuit when the switch circuit is on; and a control circuit , coupled to the first connector and the switch circuit, configured to detect the external display device through the first connector and to selectively turn on/off the switch circuit according to a detection result of the external display device; wherein, the control circuit turns on the switch circuit upon detecting the external display device to connect the power supply circuit to the display circuit; characterised in that , after the switch circuit is turned on, the control circuit further accumulates a duration or a number of times of detection that the external display device is continually not detected, and then turns off the switch circuit to disconnect the power circuit from the display circuit when the duration reaches a time threshold or the number of times of detection reaches a count threshold.
A method of measuring an object using a CMM , the method comprising: receiving nominal geometry data relating to the object; producing a first scan path based on the received nominal geometry data; conducting a first measurement of the object along the first scan path using a CMM probe , the CMM probe conducting the first measurement by following the first scan path, the first measurement of the object producing measured geometry data relating to the object; generating a second scan path based on the measured geometry data relating to the object from the first measurement; and controlling the CMM probe to conduct a fine measurement of the object by moving the CMM probe along the second scan path relative to the object . receiving nominal geometry data relating to the object; producing a first scan path based on the received nominal geometry data; conducting a first measurement of the object along the first scan path using a CMM probe , the CMM probe conducting the first measurement by following the first scan path, the first measurement of the object producing measured geometry data relating to the object; generating a second scan path based on the measured geometry data relating to the object from the first measurement; and controlling the CMM probe to conduct a fine measurement of the object by moving the CMM probe along the second scan path relative to the object .
A population of phagocytic amniocytes of amniotic fluid having selective phagocytic activity against pathological cells of a cellular pathology, wherein said population of phagocytic amniocytes of amniotic fluid is obtained by co-culturing amniocytes of amniotic fluid with pathological cells of a cellular pathology for a period of time equal to at least the time that elapses until the start of the phagocytic activity on the part of the amniocytes against said pathological cells, wherein the amniocytes co-cultured with pathological cells have a morphology characterised by a rounded shape and jagged cell membrane when observed by transmission electron microscope and do not have phagocytic activity and wherein the cellular pathology is proliferative vitreoretinopathy or tumours.
An inflatable intraocular lens/lens retainer for implantation into the intra-capsular space of a lens capsule of an aphakic eye having an intraocular lens within a lens compartment and lens support installed within the intra-capsular space , said inflatable intraocular retainer comprising: i) an expandable intraocular retainer body of deformable material, having an anterior surface and a posterior surface and providing a central transparent optical zone, ii) means for expanding said retainer body with ambient intraocular fluid; iii) characterized in that said expandable intraocular retainer body is sized when expanded to bear directly or indirectly against the inner surface of said lens capsule ; forming pressure contact zones to transfer zonular tension to actuate the lens support to reduce the depth (A,B) of the lens compartment . i) an expandable intraocular retainer body of deformable material, having an anterior surface and a posterior surface and providing a central transparent optical zone, ii) means for expanding said retainer body with ambient intraocular fluid; iii) characterized in that said expandable intraocular retainer body is sized when expanded to bear directly or indirectly against the inner surface of said lens capsule ; forming pressure contact zones to transfer zonular tension to actuate the lens support to reduce the depth (A,B) of the lens compartment .
An apparatus for wirelessly transmitting power to a power receiving apparatus , comprising: a primary coil configured to periodically transmit a pulse signal to detect presence of an object and further configured to transmit a resonant signal to the object; a resonant converter unit configured to convert a power signal to the resonant signal and further configured to transmit the resonant signal to the object via the primary coil ; a controller configured to: receive information from the object through the primary coil in response to the transmitted pulse signal; determine whether the object is capable to receive power wirelessly based on the information received from the object in response to the transmitted pulse signal, wherein the information received from the object comprises a unique identifier of the object; in response to a determination that the object is capable to receive power wirelessly, transmit the resonant signal to the object in a power transmission stage; during the power transmission stage, receive a charge status from the object through the primary coil ; and characterised in that the controller is configured to determine whether to continue to transmit the resonant signal to the object based on the received charge status of the object. a primary coil configured to periodically transmit a pulse signal to detect presence of an object and further configured to transmit a resonant signal to the object; a resonant converter unit configured to convert a power signal to the resonant signal and further configured to transmit the resonant signal to the object via the primary coil ; a controller configured to: receive information from the object through the primary coil in response to the transmitted pulse signal; determine whether the object is capable to receive power wirelessly based on the information received from the object in response to the transmitted pulse signal, wherein the information received from the object comprises a unique identifier of the object; in response to a determination that the object is capable to receive power wirelessly, transmit the resonant signal to the object in a power transmission stage; during the power transmission stage, receive a charge status from the object through the primary coil ; and characterised in that the controller is configured to determine whether to continue to transmit the resonant signal to the object based on the received charge status of the object. receive information from the object through the primary coil in response to the transmitted pulse signal; determine whether the object is capable to receive power wirelessly based on the information received from the object in response to the transmitted pulse signal, wherein the information received from the object comprises a unique identifier of the object; in response to a determination that the object is capable to receive power wirelessly, transmit the resonant signal to the object in a power transmission stage; during the power transmission stage, receive a charge status from the object through the primary coil ; and
Electrodes for lithium ion and post lithium ion batteries comprising as active material: silicon (Si), or germanium (Ge), or tin (Sn), or SnOX Tin Oxide 0.1<x<2, or silicon oxide SiOx 0.1<x<2 or Antimony-Tin (SnSb) or Sulfur; as a binder polymer: a PVDF polymer-based materials, SBR or other binder polymer which can be dissolved in an organic solvent and / or aqueous; that uses as additives materials carbon nanohorns type dahlia, SWCNH - Single Wall Carbon nanohorns, said type of dahlia carbon nanohorns additive materials, SWCNH - Single Wall Carbon nanohorns, are doped with heteroatoms said heteroatoms are nitrogen.
A tractor comprising: a three-point link mechanism that is coupled to a rear portion of a vehicle body so as to be able to swing upward and downward, and to which a work apparatus is to be attached so as to be able to move upward and downward; a hydraulic unit configured to perform a swing operation to swing the three-point link mechanism; a load receiving section configured to swing in response to a tow load being applied from the work apparatus when the work apparatus performs ground work while being towed by the vehicle body; and a link mechanism configured to transmit an amount of operation for the swing operation to the hydraulic unit according to an amount of swing of the load receiving section, wherein the link mechanism includes, at a most upstream position, an interlocking swing arm configured to swing in conjunction with the swing of the load receiving section about a swing axis that is different from a swing axis of the load receiving section, the load receiving section is provided with a first part configured to press the interlocking swing arm, the interlocking swing arm is provided with a second part configured to come into contact with the first part so as to be pressed by the first part, and a contact position of the first part and the second part is changeable. a three-point link mechanism that is coupled to a rear portion of a vehicle body so as to be able to swing upward and downward, and to which a work apparatus is to be attached so as to be able to move upward and downward; a hydraulic unit configured to perform a swing operation to swing the three-point link mechanism; a load receiving section configured to swing in response to a tow load being applied from the work apparatus when the work apparatus performs ground work while being towed by the vehicle body; and a link mechanism configured to transmit an amount of operation for the swing operation to the hydraulic unit according to an amount of swing of the load receiving section, wherein the link mechanism includes, at a most upstream position, an interlocking swing arm configured to swing in conjunction with the swing of the load receiving section about a swing axis that is different from a swing axis of the load receiving section, the load receiving section is provided with a first part configured to press the interlocking swing arm, the interlocking swing arm is provided with a second part configured to come into contact with the first part so as to be pressed by the first part, and a contact position of the first part and the second part is changeable.
A post-processing apparatus , comprising: a first sensor that detects an object at a first position in a predetermined area in which a predetermined post-process is performed on a sheet conveyed from an image forming apparatus ; and a second sensor that detects the object at a second position closer to an opening in the predetermined area than the first position with respect to the opening through which the sheet passes when the post-processed sheet is discharged from the predetermined area, characterized in that the post-processing apparatus comprises: a control unit that performs a predetermined process for preventing an occurrence of a failure when the second sensor detects the object before the first sensor detects the object. a first sensor that detects an object at a first position in a predetermined area in which a predetermined post-process is performed on a sheet conveyed from an image forming apparatus ; and a second sensor that detects the object at a second position closer to an opening in the predetermined area than the first position with respect to the opening through which the sheet passes when the post-processed sheet is discharged from the predetermined area, characterized in that the post-processing apparatus comprises: a control unit that performs a predetermined process for preventing an occurrence of a failure when the second sensor detects the object before the first sensor detects the object.
A leadless cardiac pacemaker (LCP) configured to sense cardiac activity and to deliver pacing therapy to a ventricle of a patient's heart, the LCP comprising: a housing having a proximal end and a distal end ; a first electrode secured relative to the housing and exposed to the environment outside of the housing ; a second electrode secured relative to the housing and exposed to the environment outside of the housing ; a sensing module disposed within the housing , the sensing module configured to detect an atrial artifact during passive ventricular filling and identify an atrial event based, at least in part, on the detected artifact; and circuitry in the housing operatively coupled to the first electrode and the second electrode , and also operatively coupled to the sensing module, the circuitry configured to deliver a ventricular pacing therapy to the patient' s heart via the first electrode and the second electrode , wherein the ventricular pacing therapy is time dependent, at least in part, on the identified atrial event; characterized in that the sensing module is configured to detect the atrial artefact by sensing at least one of a pressure, impedance, strain, and flow. a housing having a proximal end and a distal end ; a first electrode secured relative to the housing and exposed to the environment outside of the housing ; a second electrode secured relative to the housing and exposed to the environment outside of the housing ; a sensing module disposed within the housing , the sensing module configured to detect an atrial artifact during passive ventricular filling and identify an atrial event based, at least in part, on the detected artifact; and circuitry in the housing operatively coupled to the first electrode and the second electrode , and also operatively coupled to the sensing module, the circuitry configured to deliver a ventricular pacing therapy to the patient' s heart via the first electrode and the second electrode , wherein the ventricular pacing therapy is time dependent, at least in part, on the identified atrial event; characterized in that the sensing module is configured to detect the atrial artefact by sensing at least one of a pressure, impedance, strain, and flow.
An inkjet ink comprising: an ink vehicle; a diethylene glycol C 3-8 alkyl ether; a first surfactant of formula (I); and and a second surfactant different than the first surfactant, wherein: R 4 is C 4-20 alkyl; and R 7 is selected from the group consisting of: H and CH 2 OH. an ink vehicle; a diethylene glycol C 3-8 alkyl ether; a first surfactant of formula (I); and and a second surfactant different than the first surfactant, wherein: R 4 is C 4-20 alkyl; and R 7 is selected from the group consisting of: H and CH 2 OH. R 4 is C 4-20 alkyl; and R 7 is selected from the group consisting of: H and CH 2 OH.