mhurhangee/patent-ind-claim-en huggingface dataset:
A cylinder head cover for a cylinder head of a piston engine , - having a cover body for mounting on the cylinder head , - having an outer cover seal for sealing off the cover body from the cylinder head , said seal running completely around along an outer edge of the cover body , - having a securing bridge for mounting on the cylinder head , said securing bridge fitting over the cover body on an outer side along a cover body section from a first longitudinal side edge of the cover body to an opposite second longitudinal side edge , characterised in that - at least in the cover body section , the cover body has several injector mounting points for attaching a fuel injector, - the securing bridge has an injector cut-out for the respective injector mounting point , through which cut-out the respective injector mounting point for attaching the respective fuel injector is accessible, - the securing bridge has two longitudinal webs , which extend along the two longitudinal side edges of the cover body , - the securing bridge has three or more transverse webs , which extend from one longitudinal web via the cover body section to the other longitudinal web , - at least one of said transverse webs runs between two adjacent injector mounting points . - having a cover body for mounting on the cylinder head , - having an outer cover seal for sealing off the cover body from the cylinder head , said seal running completely around along an outer edge of the cover body , - having a securing bridge for mounting on the cylinder head , said securing bridge fitting over the cover body on an outer side along a cover body section from a first longitudinal side edge of the cover body to an opposite second longitudinal side edge , - at least in the cover body section , the cover body has several injector mounting points for attaching a fuel injector, - the securing bridge has an injector cut-out for the respective injector mounting point , through which cut-out the respective injector mounting point for attaching the respective fuel injector is accessible, - the securing bridge has two longitudinal webs , which extend along the two longitudinal side edges of the cover body , - the securing bridge has three or more transverse webs , which extend from one longitudinal web via the cover body section to the other longitudinal web , - at least one of said transverse webs runs between two adjacent injector mounting points .
Method for manufacturing an aluminium mould segment for curing and vulcanizing a tyre, which comprises the following steps involving: - a) fixing at least one thin blade for the formation of the grooves in the tread of the said tyre, in a mould form made of friable material, the shape of which is the negative of the said mould segment that is to be obtained, so that a so-called "exterior" part of the said thin blade is embedded in the material of the mould form and so that a so-called "interior" part of the thin blade projects from this mould form, this thin blade being made from maraging steel and having been obtained by a selective laser melting method, - b) closing the mould form and pouring or injecting aluminium into it, coating the said interior part of the thin blade so as to fix it in place, - c) breaking the said mould form in order to obtain the said mould segment , from the bottom of which the exterior part of the said thin blade projects, characterized in that the said thin blade is subjected to a peening treatment which involves blasting it with shot particles, such as beads, made from a material with a Vickers hardness comprised between 340 and 500 HV and with dimensions smaller than 0.3 mm. - a) fixing at least one thin blade for the formation of the grooves in the tread of the said tyre, in a mould form made of friable material, the shape of which is the negative of the said mould segment that is to be obtained, so that a so-called "exterior" part of the said thin blade is embedded in the material of the mould form and so that a so-called "interior" part of the thin blade projects from this mould form, this thin blade being made from maraging steel and having been obtained by a selective laser melting method, - b) closing the mould form and pouring or injecting aluminium into it, coating the said interior part of the thin blade so as to fix it in place, - c) breaking the said mould form in order to obtain the said mould segment , from the bottom of which the exterior part of the said thin blade projects,
Ski boot , of the kind comprising an outer shell made of a substantially rigid material and a cuff articulated to said outer shell, and further comprising a locking device for selectively allowing or preventing the movement of said cuff relative to said shell, wherein said locking device comprises a first engaging element integral with or connected to said shell and a second engaging element integral with or connected to said cuff, wherein said locking device further comprises a driving element which is switchable from a first position, in which said first and said second engaging elements are in a first configuration in which they are disengaged from each other, to a second position in which said first and said second engaging elements are in a second configuration in which they are engaged with each other, and vice versa, wherein said locking device further comprises deadlocking means which allow to prevent the movement of said driving element when said driving element is in said second position, wherein said driving element is connected to said cuff of said ski boot, and wherein said deadlocking means comprise a first deadlocking element integral with or connected to said driving element and a second deadlocking element integral with or connected to said shell of said ski boot, wherein at least one of said deadlocking elements is movable, and wherein said deadlocking means further comprise a control element for controlling the movement of said movable deadlocking element between a first position, in which it does not cooperate with the other deadlocking element and the movement of said driving element to/from said second position is allowed, and a second position, in which it cooperates with the other deadlocking element and the movement of said driving element to/from said second position is prevented, characterized in that said first deadlocking element is an element with an irregular profile, comprising a portion with a larger diameter and a portion with a smaller diameter, and is rotatably mounted on said driving element and is controlled in rotation by said control element , wherein said second deadlocking element is an abutment surface for said first deadlocking element, said first deadlocking element being arranged so as to abut against said second deadlocking element when its larger diameter portion is aligned with said abutment surface and not to abut against said second deadlocking element when its smaller diameter portion is aligned with said abutment surface, and wherein said control element is arranged to rotate said first deadlocking element between a first limit position in which its smaller diameter portion is aligned with said abutment surface and a second limit position in which its larger diameter portion is aligned with said abutment surface.
A diagnostic device comprising: a generation circuit configured to generate an inspection signal, the inspection signal being an alternating current signal of a single frequency, a conversion circuit configured to convert, into a direct current signal, a response signal of a piezoelectric element in response to the inspection signal, a storage configured to store information related to a physical quantity measured by the piezoelectric element , and a controller configured to: analyze the direct current signal; in response to receiving an electrical signal corresponding to a physical quantity output from the piezoelectric element , cause the storage to store a measured value of the physical quantity calculated based on the electrical signal; determine, based on the analysis of the direct current signal, whether the piezoelectric element is operating normally, and while it is being determined whether the piezoelectric element is operating normally, outputs the measured value that is stored in the storage immediately before it is being determined whether the piezoelectric element is operating normally. a generation circuit configured to generate an inspection signal, the inspection signal being an alternating current signal of a single frequency, a conversion circuit configured to convert, into a direct current signal, a response signal of a piezoelectric element in response to the inspection signal, a storage configured to store information related to a physical quantity measured by the piezoelectric element , and a controller configured to: analyze the direct current signal; in response to receiving an electrical signal corresponding to a physical quantity output from the piezoelectric element , cause the storage to store a measured value of the physical quantity calculated based on the electrical signal; determine, based on the analysis of the direct current signal, whether the piezoelectric element is operating normally, and while it is being determined whether the piezoelectric element is operating normally, outputs the measured value that is stored in the storage immediately before it is being determined whether the piezoelectric element is operating normally. analyze the direct current signal; in response to receiving an electrical signal corresponding to a physical quantity output from the piezoelectric element , cause the storage to store a measured value of the physical quantity calculated based on the electrical signal; determine, based on the analysis of the direct current signal, whether the piezoelectric element is operating normally, and while it is being determined whether the piezoelectric element is operating normally, outputs the measured value that is stored in the storage immediately before it is being determined whether the piezoelectric element is operating normally.
A mechanical latching accessory kit for a Medium Voltage contactor , the Medium Voltage contactor comprising one or more movable contacts connected through a mechanical link to a contact actuator moving said one or more movable contacts between a contact open position and a contact closed position, characterized in that said mechanical latching accessory kit comprises: a supporting interface adapted to be fixed to and removed from said Medium Voltage contactor ; a latching element movable between a first operating position and a second resting position; a latching actuating system moving said latching element between said first, operating, position and said second, resting, position; said latching element is inserted in a space between a movable part of the mechanical link and a fixed part of the Medium Voltage contactor when said latching element is in said first operating position, and adapted to cooperate with the mechanical link of said Medium Voltage contactor to latch the mechanical link and said one or more movable contacts , and, when it is in said second resting position, to release said one or more movable contacts .
A multicore optical fiber , comprising: two or more core regions disposed within a common cladding region, wherein each of the core regions is configured to guide a respective light transmission, said light transmission comprising at least one optical mode along the length of the multicore optical fiber , wherein the multicore optical fiber has a rotational perturbation that is configured to result in reduced crosstalk between modes of neighboring cores in the multicore optical fiber , in a deployment of the multicore optical fiber in which cross-coupling of modes between neighboring cores is affected by bend perturbations arising in the deployed fiber , characterized in that the rotational perturbation is a spin and has a short and well-defined spin period Λ spin , in that the index mismatch between neighboring cores is not close to any integer multiple of λ/ Λ spin , wherein the index mismatch between neighboring cores is defined by Δ n m , n eff = A m , m − A n , n , wherein λ is the wavelength of the transmitted light, A m,m and A n,n are the refractive indices of two neighboring cores, and in that said spin period is no greater than 2 cm. two or more core regions disposed within a common cladding region, wherein each of the core regions is configured to guide a respective light transmission, said light transmission comprising at least one optical mode along the length of the multicore optical fiber , wherein the multicore optical fiber has a rotational perturbation that is configured to result in reduced crosstalk between modes of neighboring cores in the multicore optical fiber , in a deployment of the multicore optical fiber in which cross-coupling of modes between neighboring cores is affected by bend perturbations arising in the deployed fiber , characterized in that the rotational perturbation is a spin and has a short and well-defined spin period Λ spin , in that the index mismatch between neighboring cores is not close to any integer multiple of λ/ Λ spin , wherein the index mismatch between neighboring cores is defined by Δ n m , n eff = A m , m − A n , n , wherein λ is the wavelength of the transmitted light, A m,m and A n,n are the refractive indices of two neighboring cores, and in that said spin period is no greater than 2 cm.
A method performed by a vehicle of enabling access to the vehicle using a wireless communication device as a key, the method comprising: advertising (S101), by repeatedly transmitting, a random number required to access the vehicle ; thereafter receiving (S102), from the wireless communication device approaching the vehicle , a request to access the vehicle , the request comprising authentication data, a signature of the wireless communication device , and booking data required to access the vehicle ; determining (S103) if the received authentication data matches the advertised random number; and if so verifying correctness of the signature of the wireless communication device ; and if so determining (S105) if the booking data is valid; and if so allowing access to the vehicle , wherein a new random number is advertised after a currently advertised random number is received from the wireless communication device . advertising (S101), by repeatedly transmitting, a random number required to access the vehicle ; thereafter receiving (S102), from the wireless communication device approaching the vehicle , a request to access the vehicle , the request comprising authentication data, a signature of the wireless communication device , and booking data required to access the vehicle ; determining (S103) if the received authentication data matches the advertised random number; and if so verifying correctness of the signature of the wireless communication device ; and if so determining (S105) if the booking data is valid; and if so allowing access to the vehicle ,
A guided thermal treatment system, comprising: - a thermal treatment system configured for applying thermal treatment pulses to a patient, wherein the thermal treatment pulses are spaced in time by a cool-down period, - a guidance system, configured to provide guidance to the thermal treatment, wherein the guidance system comprises a thermal module configured for calculation of the cool-down period, characterized in that the thermal module is configured to calculate the cool-down period by - calculation of a duration of a mandatory part of the cool-down period based on a thermal model using non-conservative patient model parameter values, wherein the model takes into account timing and energy of sonications as well as a positioning of an ultrasound beam path, wherein the mandatory cool-down period indicates a period during which use of a thermal treatment system is prevented; - calculation of a duration of a recommended part of the cool-down period, wherein the recommended part of the cool-down period indicates a period during which thermal pulse would result in an elevated risk of overheating in a sensitive patient, but not in a non-sensitive patient; - a thermal treatment system configured for applying thermal treatment pulses to a patient, wherein the thermal treatment pulses are spaced in time by a cool-down period, - a guidance system, configured to provide guidance to the thermal treatment, wherein the guidance system comprises a thermal module configured for calculation of the cool-down period, characterized in that the thermal module is configured to calculate the cool-down period by - calculation of a duration of a mandatory part of the cool-down period based on a thermal model using non-conservative patient model parameter values, wherein the model takes into account timing and energy of sonications as well as a positioning of an ultrasound beam path, wherein the mandatory cool-down period indicates a period during which use of a thermal treatment system is prevented; - calculation of a duration of a recommended part of the cool-down period, wherein the recommended part of the cool-down period indicates a period during which thermal pulse would result in an elevated risk of overheating in a sensitive patient, but not in a non-sensitive patient;
An attachment for a surgical instrument, comprising: a drive input hub for connecting, in use, to a power source; a drive output hub for connecting, in use, to a surgical instrument; and a body (1-4) connecting the drive input hub to the drive output hub, the body comprising means for transferring drive from the input hub to the output hub, wherein the body, the drive input hub and the drive output hub are at least in part not coaxial, characterised in that the means for transferring drive from the input hub to the output hub comprises a series of drive shafts and bevel gears , the drive shafts being angularly disposed with respect to each other. a drive input hub for connecting, in use, to a power source; a drive output hub for connecting, in use, to a surgical instrument; and a body (1-4) connecting the drive input hub to the drive output hub, the body comprising means for transferring drive from the input hub to the output hub, wherein the body, the drive input hub and the drive output hub are at least in part not coaxial, characterised in that the means for transferring drive from the input hub to the output hub comprises a series of drive shafts and bevel gears , the drive shafts being angularly disposed with respect to each other.
Process for preparing a porous material, at least comprising the steps of: a) providing a mixture (I) comprising (i) a composition (A) comprising components suitable to form an organic gel and (ii) a solvent (B), b) reacting the components in the composition (A) in the presence of the solvent (B) to form a gel, and c) drying of the gel obtained in step b), wherein the composition (A) comprises at least one compound (af) comprising phosphorous and at least one functional group which is reactive towards isocyanates, wherein compound (af) is used in an amount which results in a phosphorous content in the porous material in a range of from 1 to 5 % by weight, wherein the composition (A) comprises at least one polyfunctional isocyanate as component (a1), and at least one aromatic amine as component (a2), optionally comprises water as component (a3), and optionally comprises at least one further catalyst as component (a4). a) providing a mixture (I) comprising (i) a composition (A) comprising components suitable to form an organic gel and (ii) a solvent (B), (i) a composition (A) comprising components suitable to form an organic gel and (ii) a solvent (B), b) reacting the components in the composition (A) in the presence of the solvent (B) to form a gel, and c) drying of the gel obtained in step b), wherein the composition (A) comprises at least one compound (af) comprising phosphorous and at least one functional group which is reactive towards isocyanates, wherein compound (af) is used in an amount which results in a phosphorous content in the porous material in a range of from 1 to 5 % by weight, wherein the composition (A) comprises at least one polyfunctional isocyanate as component (a1), and at least one aromatic amine as component (a2), optionally comprises water as component (a3), and optionally comprises at least one further catalyst as component (a4).
E-bike frame comprising a downtube , a seat tube connected with the downtube , and a battery connected with the downtube , a bottom bracket arranged in a bottom bracket receptacle and connected with an electric motor , and a swivel-mounted rear frame structure , characterized by a channel element arranged laterally beside the battery provided for receiving electric wires, shift cables, brake cables and/or hydraulic lines , wherein wires, lines and/or Bowden cables leading to the rear frame structure are arranged at a distance of less than 5 cm to the rotation axis of the main link bearing of the rear frame structure, wherein the downtube has an open end and is connected to the seat tube exclusively via the bottom bracket receptacle as well as, if required, additionally via the channel element arranged above the bottom bracket receptacle . a downtube , a seat tube connected with the downtube , and a battery connected with the downtube , a bottom bracket arranged in a bottom bracket receptacle and connected with an electric motor , and a swivel-mounted rear frame structure , characterized by a channel element arranged laterally beside the battery provided for receiving electric wires, shift cables, brake cables and/or hydraulic lines , wherein wires, lines and/or Bowden cables leading to the rear frame structure are arranged at a distance of less than 5 cm to the rotation axis of the main link bearing of the rear frame structure, wherein the downtube has an open end and is connected to the seat tube exclusively via the bottom bracket receptacle as well as, if required, additionally via the channel element arranged above the bottom bracket receptacle .