mhurhangee/patent-ind-claim-en huggingface dataset:
A front vehicle body structure for a vehicle comprising: a pair of front frames provided at a front part of the vehicle and extending substantially in a vehicle front-rear direction; and a pair of suspension housings which are provided at the front part of the vehicle and to which a suspension for a front wheel is mounted or mountable, wherein said suspension housing comprises a first inner wall , a second inner wall and a third inner wall that form the inner side surface in the vehicle width direction of the suspension housing , wherein each suspension housing has a first fixed portion and a second fixed portion that are provided at positions separated from each other in the front-rear direction and each fixed to one of the front frames , and characterized by a buckling promoting portion that is provided substantially at a center portion in the front-rear direction of the third inner wall at a position between the first fixed portion and the second fixed portion in the front-rear direction and has a shape extending substantially in the up-down direction with a bend protruding inward in the vehicle width direction and promotes buckling of the suspension housing when a load is applied from the front frame to the suspension housing in the front-rear direction. a pair of front frames provided at a front part of the vehicle and extending substantially in a vehicle front-rear direction; and a pair of suspension housings which are provided at the front part of the vehicle and to which a suspension for a front wheel is mounted or mountable, wherein said suspension housing comprises a first inner wall , a second inner wall and a third inner wall that form the inner side surface in the vehicle width direction of the suspension housing , wherein each suspension housing has a first fixed portion and a second fixed portion that are provided at positions separated from each other in the front-rear direction and each fixed to one of the front frames , and characterized by a buckling promoting portion that is provided substantially at a center portion in the front-rear direction of the third inner wall at a position between the first fixed portion and the second fixed portion in the front-rear direction and has a shape extending substantially in the up-down direction with a bend protruding inward in the vehicle width direction and promotes buckling of the suspension housing when a load is applied from the front frame to the suspension housing in the front-rear direction.
A tank interior pipe in fuel tanks of motor vehicles, wherein the pipe has a fluid channel and a pipe wall enveloping the fluid channel , wherein the pipe wall is multilayered in design and consists of at least three layers, wherein an inner layer based on at least one polyolefin, preferably based on polyethylene, is provided, wherein at least one central layer based on at least one aliphatic and/or partially aromatic polyamide is present, and wherein an outer layer based on at least one polyolefin, preferably based on polyethylene, is provided, wherein the inner layer and/or outer layer has a lower layer thickness than the at least one central layer .
An ammunition projectile for a shotshell, comprising: a body comprising an upper section having a top pole comprising a substantially flat disc, a lower section having a bottom pole comprising a substantially flat disc, and an equator between the upper and lower sections; the top and bottom poles defining a vertical axis of the projectile; the body defining an exterior surface and a vertical diameter from the top pole to the bottom pole; a ring protruding from the equator of the body, characterized in that the ring height comprises about 28% - 40% of the vertical diameter of the body; and in that the upper section and the lower section each have a plurality of frustoconical walls at different angles relative to the vertical axis. a body comprising an upper section having a top pole comprising a substantially flat disc, a lower section having a bottom pole comprising a substantially flat disc, and an equator between the upper and lower sections; the top and bottom poles defining a vertical axis of the projectile; the body defining an exterior surface and a vertical diameter from the top pole to the bottom pole; a ring protruding from the equator of the body, characterized in that the ring height comprises about 28% - 40% of the vertical diameter of the body; and in that the upper section and the lower section each have a plurality of frustoconical walls at different angles relative to the vertical axis.
A system for storing and retrieving packages , comprising: a drone having a frame , at least one propeller for generating aerodynamic lift, an article containment area having a bottom formed by a dynamic support surface, enabling movement of an article into and out of said article containment area and supporting the article from the bottom while the article is in said article containment area of the drone, a first coupling element above the article containment area and docking cones ; and a docking station for the drone , comprising a shelf for a package , a second coupling element for mating with the first coupling element and for allowing the drone to pivot down about the second coupling element , the docking station further including receptacles in the shelf for receiving the docking cones , such that the dynamic support surface of the article containment area aligns with the shelf . a drone having a frame , at least one propeller for generating aerodynamic lift, an article containment area having a bottom formed by a dynamic support surface, enabling movement of an article into and out of said article containment area and supporting the article from the bottom while the article is in said article containment area of the drone, a first coupling element above the article containment area and docking cones ; and a docking station for the drone , comprising a shelf for a package , a second coupling element for mating with the first coupling element and for allowing the drone to pivot down about the second coupling element , the docking station further including receptacles in the shelf for receiving the docking cones , such that the dynamic support surface of the article containment area aligns with the shelf .
A nano particle/polyamide composite material, characterized in that : the composite material comprises 0.5-60 parts by weight of inorganic nano particles and 40-99.5 parts by weight of a polyamide matrix; the polyamide is a polymer or a homopolymer formed by polymerization of lactam as monomer, and is selected from nylon 4, nylon 6, nylon 12, nylon 4/6, nylon 6/10, nylon 6/12 or nylon 4/6/12; the inorganic nano particle is selected from sulfide or inorganic salt; wherein, the sulfide is selected from water-insoluble or slightly-water-soluble inorganic compounds formed by combination of metal or metalloid elements and sulfur, selenium, tellurium, arsenic or antimony, and is selected from one or more than one of CuS, ZnS, CdS, CdSe, CdTe, WSe 2 , CuTe, CoAs 2 or GaAs; the inorganic salt is a water-insoluble or slightly-water-soluble inorganic compound formed by metal element cation and carbonate radical, sulfate radical, silicate radical or halogen anion, and is selected from one or more than one of CaCO 3 , MgCO 3 , BaSO 4 , CaSiO 3 , AgCl, AgBr or CaF 2 ; the lactam is selected from caprolactam, α-pyrrolidone, capric lactam or laurolactam.
A nanobiocomposite formulation (NCs) in ointment form comprising silver nanoparticles (AgNPs) and cellulose nanocrystals (CNCs) wherein the ratio of AgNPs and CNCs is in the range of 0,067% -0,4% w/w (AgNPs) : 7-8% w/w (CNCs), and wherein the cellulose is derived from Syzygium cumini leaves.
A method of implementing multipath TCP, MPTCP, on a first node, comprising: at a data link layer of the first node, receiving an indication from a remote node that carrier aggregation is supported by the remote node and establishing first and second data link layer connections with the remote node , at the data link layer, notifying a network layer of the first node of the establishment of the first and second data link layer connections , the network layer further notifying a transport layer of the first node of the establishment of the first and second data link layer connections , at the transport layer, establishing first and second transport layer connections with the remote node over the first and second data link layer connections, wherein the first and second transport layer connections are MPTCP sub-flows ; at the data link layer, inspecting a packet received from the network layer ; and at the data link layer, assigning the received packet to one of the first the first data link layer connection and the second data link layer connection based on an affinity between an MPTCP sub-flow associated with the packet and the one of the first data link layer connection and the second data link layer connection . at a data link layer of the first node, receiving an indication from a remote node that carrier aggregation is supported by the remote node and establishing first and second data link layer connections with the remote node , at the data link layer, notifying a network layer of the first node of the establishment of the first and second data link layer connections , the network layer further notifying a transport layer of the first node of the establishment of the first and second data link layer connections , at the transport layer, establishing first and second transport layer connections with the remote node over the first and second data link layer connections, wherein the first and second transport layer connections are MPTCP sub-flows ; at the data link layer, inspecting a packet received from the network layer ; and at the data link layer, assigning the received packet to one of the first the first data link layer connection and the second data link layer connection based on an affinity between an MPTCP sub-flow associated with the packet and the one of the first data link layer connection and the second data link layer connection .
An optical sensing element for detection of a narcotic selected from the group consisting of methamphetamine, cocaine, 3,4-dimethylenedioxyamphetamine and fentanyl; the optical sensing element comprising a fluorescent sensing compound provided on a substrate, wherein the fluorescent sensing compound is represented by general formula (IA): A a B b C c D d E e (IA) in which: A is an electron donor moiety; B is an electron acceptor moiety; C is a moiety that influences solubility of the compound in a solvent; D is a modifier moiety that enables fine tuning of the optoelectronic properties of the sensing compound; E is a branching moiety; a is an integer of 1 or more; b is an integer of 1 or more; c is an integer of 1 or more; d is an integer of 1 to less than or equal to b; and e is 0 or 1; wherein the fluorescent sensing compound is selected from: AL03-116 AL03-96 AL03-35 AL-4-09 and wherein emission of the fluorescent sensing compound is quenched in the presence of the narcotic . A is an electron donor moiety; B is an electron acceptor moiety; C is a moiety that influences solubility of the compound in a solvent; D is a modifier moiety that enables fine tuning of the optoelectronic properties of the sensing compound; E is a branching moiety; a is an integer of 1 or more; b is an integer of 1 or more; c is an integer of 1 or more; d is an integer of 1 to less than or equal to b; and e is 0 or 1; wherein the fluorescent sensing compound is selected from: AL03-116 AL03-96 AL03-35 AL-4-09 and wherein emission of the fluorescent sensing compound is quenched in the presence of the narcotic .
Plug , comprising a support plate and at least two contact pins fastened to the support plate , wherein the contact pins each have a free end and a connection end , wherein electrical conductors of a cable are connected to the connection ends of the contact pins , wherein a shaped mounting part with a partition wall is fastened to the support plate , wherein the shaped mounting part has at least one receptacle on a side of the partition wall facing away from the contact pins , wherein a temperature sensor is arranged in the at least one receptacle , wherein the partition wall separates a first inner region of the plug with the electrical conductors of the contact pins and a second inner region of the plug with the temperature sensors and sensor lines from one another, characterized in that the partition wall extends over essentially the entire width of the support plate , in that two side regions are arranged on the partition wall , in that the side regions extend around the first inner region of the plug with the electrical conductors and the contact pins , wherein the partition wall forms with the two side regions a boundary which is essentially U-shaped and open-edged.
An apparatus for carrying cargo into an aircraft originally configured for passenger service, said apparatus comprising: a rack assembly mountable in an upper part of a fuselage of said aircraft so as to define a cargo area in an upper lobe thereof, said rack assembly comprising: a plurality of transverse rack frames mountable at intervals to frames of said fuselage of said aircraft ; and means for supporting a plurality of cargo containers arranged longitudinally on said rack assembly within said cargo area in said upper lobe of said aircraft, said transverse rack frames each comprising: a lower frame member that extends substantially horizontally to form a lower side of said cargo area ; and first and second suspension frame members that extend generally upwardly from said lower frame member towards locations on said frame of said fuselage from which said rack assembly is configured to be suspended, characterised in that said rack assembly further comprises: means configured to support said upwardly extending suspension frame members of said transverse rack frames from pre-existing luggage bin attachment points on said frames of said fuselage, the rack assembly being configured to be installed with the pre-existing luggage bin attachment points . a rack assembly mountable in an upper part of a fuselage of said aircraft so as to define a cargo area in an upper lobe thereof, said rack assembly comprising: a plurality of transverse rack frames mountable at intervals to frames of said fuselage of said aircraft ; and means for supporting a plurality of cargo containers arranged longitudinally on said rack assembly within said cargo area in said upper lobe of said aircraft, said transverse rack frames each comprising: a lower frame member that extends substantially horizontally to form a lower side of said cargo area ; and first and second suspension frame members that extend generally upwardly from said lower frame member towards locations on said frame of said fuselage from which said rack assembly is configured to be suspended, characterised in that said rack assembly further comprises: means configured to support said upwardly extending suspension frame members of said transverse rack frames from pre-existing luggage bin attachment points on said frames of said fuselage, the rack assembly being configured to be installed with the pre-existing luggage bin attachment points .
A method for training a multi-language speech recognition network, comprising: providing utterance datasets corresponding to predetermined languages; inserting language identification, ID, labels into the utterance datasets, wherein each of the utterance datasets is labeled by each of the language ID labels, and wherein a language ID label is inserted into a transcript of each utterance dataset in the speech corpora of different languages ; concatenating the labeled utterance datasets in a random order, wherein the corresponding transcripts are also concatenated in the same order as the concatenated utterance datasets; generating initial network parameters from the utterance datasets, wherein the initial network parameters are generated using a universal label set obtained as a union of grapheme sets and language IDs; and training, iteratively, an end-to-end network with a series of the initial network parameters and the concatenated labeled utterance datasets until a training result reaches a threshold, wherein the training an end-to-end network comprises optimizing the initial network parameters using the concatenated utterance datasets and the transcripts. providing utterance datasets corresponding to predetermined languages; inserting language identification, ID, labels into the utterance datasets, wherein each of the utterance datasets is labeled by each of the language ID labels, and wherein a language ID label is inserted into a transcript of each utterance dataset in the speech corpora of different languages ; concatenating the labeled utterance datasets in a random order, wherein the corresponding transcripts are also concatenated in the same order as the concatenated utterance datasets; generating initial network parameters from the utterance datasets, wherein the initial network parameters are generated using a universal label set obtained as a union of grapheme sets and language IDs; and training, iteratively, an end-to-end network with a series of the initial network parameters and the concatenated labeled utterance datasets until a training result reaches a threshold, wherein the training an end-to-end network comprises optimizing the initial network parameters using the concatenated utterance datasets and the transcripts.
An information transmission method comprising: generating or receiving (S 110), by a first communication node, a control channel description list, wherein the control channel description list comprises description information of N control channels and the description information of the N control channels is used for describing N different types of control channels, and N is a positive integer; and sending (S120), by the first communication node, the control channel description list to a second communication node; wherein the description information of the control channels comprises control channel configuration information; wherein the control channel configuration information comprises one or more of: a subcarrier spacing and a waveform; or the control channel configuration information comprises a number of information bits; wherein before the sending, by the first communication node, the control channel description list to the second communication node, the method further comprises: receiving (S 111), by the first communications node, a random access signal sent by the second communications node; or receiving (S 112), by the first communication node, a request message for the control channel description list sent by the second communication node. generating or receiving (S 110), by a first communication node, a control channel description list, wherein the control channel description list comprises description information of N control channels and the description information of the N control channels is used for describing N different types of control channels, and N is a positive integer; and sending (S120), by the first communication node, the control channel description list to a second communication node; wherein the description information of the control channels comprises control channel configuration information; wherein the control channel configuration information comprises one or more of: a subcarrier spacing and a waveform; or the control channel configuration information comprises a number of information bits; wherein before the sending, by the first communication node, the control channel description list to the second communication node, the method further comprises: receiving (S 111), by the first communications node, a random access signal sent by the second communications node; or receiving (S 112), by the first communication node, a request message for the control channel description list sent by the second communication node. receiving (S 111), by the first communications node, a random access signal sent by the second communications node; or receiving (S 112), by the first communication node, a request message for the control channel description list sent by the second communication node.
A method of controlling a digital inkjet printer for printing images on an image receiving medium on a printing surface , the digital inkjet printer comprising a print controller , a print head with an array of printing elements for ejecting marking material on the image receiving medium and a maintenance tray for receiving marking material spit from at least part of the printing elements of the array, the print head mounted on a carriage that is guided on guide rails and being arranged to scan the image receiving medium in a main scanning direction (X) in order to print swaths of marking material on the image receiving medium and to be moved relative to the image receiving medium in a sub-scanning direction (Y) normal to the main scanning direction (X) in predetermined steps of relatively advancing the image receiving medium in the sub-scanning direction (Y) between passes of scanning the image receiving medium in the main scanning direction (X), wherein the maintenance tray is positioned at a side of the printing surface in the main scanning direction (X), the method comprising the steps of: a) printing a digital image in swaths with a swath time corresponding to the width (w1) of the digital image on the image receiving medium in the main scanning direction (X) b) the print controller issuing or receiving a trigger that a spitting action for at least part of the printing elements of the print head needs to be performed, c) gradually increasing a swath time of subsequent swaths until the print head reaches the maintenance tray , d) the print head staying at the maintenance tray for a predetermined amount of time for preparation of spitting at subsequent swaths, e) the at least part of the printing elements of the print head spitting marking material in the maintenance tray , and f) after the spitting in step e) gradually decreasing the swath time of subsequent swaths until the swath time is corresponding again with the width (w1) of the digital image on the image receiving medium in the main scanning direction (X). a) printing a digital image in swaths with a swath time corresponding to the width (w1) of the digital image on the image receiving medium in the main scanning direction (X) b) the print controller issuing or receiving a trigger that a spitting action for at least part of the printing elements of the print head needs to be performed, c) gradually increasing a swath time of subsequent swaths until the print head reaches the maintenance tray , d) the print head staying at the maintenance tray for a predetermined amount of time for preparation of spitting at subsequent swaths, e) the at least part of the printing elements of the print head spitting marking material in the maintenance tray , and f) after the spitting in step e) gradually decreasing the swath time of subsequent swaths until the swath time is corresponding again with the width (w1) of the digital image on the image receiving medium in the main scanning direction (X).
A method of making a (mcth)acrylic acid polymer, comprising iodine transfer polymerization of an ethylenically unsaturated monomer comprising (meth)acrylic acid, salt thereof, or combination thereof, in the presence of: a radical polymerization initiator; an organoiodide; and an aqueous solvent comprising 50 to 100 weight percent water, based on the total weight of the solvent. a radical polymerization initiator; an organoiodide; and an aqueous solvent comprising 50 to 100 weight percent water, based on the total weight of the solvent.
Positive electrode for alkali metal-ion accumulator comprising at least one organic binder and at least one alkali metal salt of the following formula (I): wherein the X represent an alkali element.