mhurhangee/patent-ind-claim-en huggingface dataset:
Method for curing a tyre , during which a curing membrane is deployed against a green tyre in order to bring a contact surface of said curing membrane to bear against an interior surface of said green tyre and thus press an exterior surface of said green tyre against the walls of a curing mould so as to obtain a tyre which has a crown region forming an annular tread around a central axis (Z), and, on each side of an equatorial plane (P_EQ) normal to said central axis (Z), a bead region for securing said tyre to a rim, and a sidewall region connecting the crown region to the bead region , in which method the contact surface of the curing membrane is provided with a drainage structure which comprises air-discharge paths (C31, C32, C33) cut into the contact surface to a depth equal to or greater than 0.05 mm and referred to as "channels" (C31, C32, C33), wherein said drainage structure is subdivided, at least on one side of the equatorial plane (P_EQ), into at least three drainage regions , these being a first drainage region which corresponds to a first annular portion of the contact surface , centred on the central axis (Z), along which said contact surface will hug the crown region , a second drainage region which corresponds to a second annular portion of the contact surface , centred on the central axis (Z), along which said contact surface will hug the sidewall region and the channels (C32) of which communicate with the channels (C31) of the first drainage region , and a third drainage region which corresponds to a third annular portion of the contact surface , centred on the central axis (Z), along which said contact surface will hug the bead region and the channels (C33) of which communicate with the channels (C32) of the second drainage region , said method being characterized in that the mean depth of the channels (C33) of the third drainage region , which is equal to the quotient of the volume occupied by the channels present in said drainage region by the surface area covered by these same channels in said drainage region is strictly greater than the mean depth of the channels (C32) of the second drainage region , said mean depth of the channels (C32) of the second drainage region being itself strictly greater than the mean depth of the channels (C31) of the first drainage region .
A method of providing distributed controls for a power transmission and distribution system comprising: providing at least one group (501; 901, 902) of a plurality of FACTS modules (501- 1 ... 501-4; 401-111 ... 401-133, 401-211 ... 401-233), each module without fault current protection circuitry; providing at least one fault current protection module (601; 601-1, 601-2), not containing a FACTS device; coupling the at least one group (501; 901, 902) of FACTS modules in series to a power transmission line of the power transmission and distribution system; and wherein the method is characterized in that it further comprises coupling the at least one fault current protection module (601; 601-1, 601-2) in series to the power transmission line of the power transmission and distribution system, so that each fault current protection module (601; 601-1, 601-2) is coupled in parallel across one of the at least one group (501; 901, 902) of FACTS modules; and wherein the FACTS modules (401-111 ... 401-133, 401-211 ... 401-233) of the at least one group are connected in a serial parallel connection, such that some of the FACTS modules are connected in series and some of the FACTS modules are connected in parallel. providing at least one group (501; 901, 902) of a plurality of FACTS modules (501- 1 ... 501-4; 401-111 ... 401-133, 401-211 ... 401-233), each module without fault current protection circuitry; providing at least one fault current protection module (601; 601-1, 601-2), not containing a FACTS device; coupling the at least one group (501; 901, 902) of FACTS modules in series to a power transmission line of the power transmission and distribution system; and wherein the method is characterized in that it further comprises coupling the at least one fault current protection module (601; 601-1, 601-2) in series to the power transmission line of the power transmission and distribution system, so that each fault current protection module (601; 601-1, 601-2) is coupled in parallel across one of the at least one group (501; 901, 902) of FACTS modules; and wherein the FACTS modules (401-111 ... 401-133, 401-211 ... 401-233) of the at least one group are connected in a serial parallel connection, such that some of the FACTS modules are connected in series and some of the FACTS modules are connected in parallel.
A user equipment, UE, comprising: a transceiver operative to transmit (S301) and receive (S301) data to and from a base station; and a circuitry operative to use (S302) at least a subcell identifier, ID, for physical layer behaviors, wherein the subcell ID is assigned for UEs in a same subcell, and a cell is divided into subcells in different divisions of a type of domain; characterized in that the physical layer behaviors include at least one of search space randomization and Cyclic Redundancy Check, CRC, masking of a control channel. a transceiver operative to transmit (S301) and receive (S301) data to and from a base station; and a circuitry operative to use (S302) at least a subcell identifier, ID, for physical layer behaviors, wherein the subcell ID is assigned for UEs in a same subcell, and a cell is divided into subcells in different divisions of a type of domain; characterized in that the physical layer behaviors include at least one of search space randomization and Cyclic Redundancy Check, CRC, masking of a control channel.
Tank including at least one enclosure and a plurality of equipment units (30, 30', 30") positioned in the enclosure , the enclosure including a tubular body having open first and second ends (24.1, 24.2) and first and second end walls (26.1, 26.2) connected to the first and second ends (24.1, 24.2), the tank including at least one equipment support to which are connected the equipment units (30, 30', 30") positioned in the enclosure and connected to the enclosure , - the equipment support has a first end (34.1) connected to the first end wall (26.1) of the enclosure by at least one built-in first connection , the equipment support being connected in a rigid manner to the first end wall (26.1); - the equipment support has a second end (34.2) connected to the second end wall (26.2) of the enclosure by at least one second connection ; and characterized in that - the second connection is a sliding and pivoting connection configured to enable the equipment support to move in translation relative to the tubular body and to the second end wall (26.2) in an introduction direction and to pivot relative to the tubular body and to the second end wall (26.2) about an axis parallel to the direction of introduction. - the equipment support has a first end (34.1) connected to the first end wall (26.1) of the enclosure by at least one built-in first connection , the equipment support being connected in a rigid manner to the first end wall (26.1); - the equipment support has a second end (34.2) connected to the second end wall (26.2) of the enclosure by at least one second connection ; and characterized in that - the second connection is a sliding and pivoting connection configured to enable the equipment support to move in translation relative to the tubular body and to the second end wall (26.2) in an introduction direction and to pivot relative to the tubular body and to the second end wall (26.2) about an axis parallel to the direction of introduction.
A method for producing a shaped body (i) with the main components (ia) lime component in the form of burnt lime, burnt dolomite, limestone and/or dolomite stone, and (ib) black mass in the form of coke, anthracite and/or hard coal, (ii) with at least one adjuvant that acts as a briquetting aid in the form of cellulose fibre material and (iii) with a binding agent wherein the lime component is mixed with the black mass and with between 0.5 and 5% by weight, based on the mixture of the blank, of cellulose fibre material and with between 0.1 and 5% by weight, based on the mixture of the blank, of binding agent and then pressed to form the blank, wherein the lime component - calculated on the basis of the CaO equivalent - and the black mass - calculated on the basis of the C equivalent - is added in a weight ratio of 70-50 to 30-50, wherein the mixing and pressing are performed with a moisture content of not more than 5% by weight, the black mass having a standard particle size of between 0 and 5 mm. (i) with the main components (ia) lime component in the form of burnt lime, burnt dolomite, limestone and/or dolomite stone, and (ib) black mass in the form of coke, anthracite and/or hard coal, (ia) lime component in the form of burnt lime, burnt dolomite, limestone and/or dolomite stone, and (ib) black mass in the form of coke, anthracite and/or hard coal, (ii) with at least one adjuvant that acts as a briquetting aid in the form of cellulose fibre material and (iii) with a binding agent wherein the lime component is mixed with the black mass and with between 0.5 and 5% by weight, based on the mixture of the blank, of cellulose fibre material and with between 0.1 and 5% by weight, based on the mixture of the blank, of binding agent and then pressed to form the blank, wherein the lime component - calculated on the basis of the CaO equivalent - and the black mass - calculated on the basis of the C equivalent - is added in a weight ratio of 70-50 to 30-50, wherein the mixing and pressing are performed with a moisture content of not more than 5% by weight, the black mass having a standard particle size of between 0 and 5 mm. wherein the lime component is mixed with the black mass and with between 0.5 and 5% by weight, based on the mixture of the blank, of cellulose fibre material and with between 0.1 and 5% by weight, based on the mixture of the blank, of binding agent and then pressed to form the blank, wherein the lime component - calculated on the basis of the CaO equivalent - and the black mass - calculated on the basis of the C equivalent - is added in a weight ratio of 70-50 to 30-50, wherein the mixing and pressing are performed with a moisture content of not more than 5% by weight, the black mass having a standard particle size of between 0 and 5 mm.
A system for realising packages comprising a bag of flexible material comprising a first face and a second face and a folded element folded along a folding line , wherein the folding line is parallel to the upper end of the bag and divides the folded element into a first portion and a second portion so that said first portion extends along said first face and said second portion extends along said second face , said system comprising: a storage device for housing a stack of foldable flat elements ; gripping means for extracting one of said flat elements from said storage device and bringing it to a predetermined position; a supporting and folding element positioned so that it can be put in contact with said flat element after said flat element is placed in said predetermined position; folding means for folding said flat element around said supporting and folding element along said folding line so as to form said folded element ; housings for housing said bags , wherein said housings are movable so as to be able to bring one of said bags into a position in correspondence with said supporting and folding element so that when said flat element is folded around said supporting and folding element by said folding means said folded element is also fixed to said bag . a storage device for housing a stack of foldable flat elements ; gripping means for extracting one of said flat elements from said storage device and bringing it to a predetermined position; a supporting and folding element positioned so that it can be put in contact with said flat element after said flat element is placed in said predetermined position; folding means for folding said flat element around said supporting and folding element along said folding line so as to form said folded element ; housings for housing said bags , wherein said housings are movable so as to be able to bring one of said bags into a position in correspondence with said supporting and folding element so that when said flat element is folded around said supporting and folding element by said folding means said folded element is also fixed to said bag .
A method for identifying clusters in two-dimensional data comprising a plurality of points, the method comprising: binning the data using a grid structure to create a two-dimensional histogram; generating a density estimate of said binned data; identifying at least one cluster in said binned data, said at least one cluster comprising a plurality of grid points which satisfy a selected density criteria; and determining a boundary around said at least one cluster following the outlines of the data grid; wherein said boundary is a polygon characterized by a plurality of vertices, and further comprising processing said boundary to reduce the number of said vertices while enclosing approximately the same area within said boundary. binning the data using a grid structure to create a two-dimensional histogram; generating a density estimate of said binned data; identifying at least one cluster in said binned data, said at least one cluster comprising a plurality of grid points which satisfy a selected density criteria; and determining a boundary around said at least one cluster following the outlines of the data grid; wherein said boundary is a polygon characterized by a plurality of vertices, and further comprising processing said boundary to reduce the number of said vertices while enclosing approximately the same area within said boundary.
A method for commissioning a device to an Internet of Things (IoT) Hub using a permissioned blockchain , the method comprising: preparing a device for commissioning, the preparing including providing the device with meta-information and a set of cryptographic keys ; initializing the device , the initializing configured to facilitate communication with a permissioned blockchain by a trusted user ; storing at least a portion of the meta-information in the permissioned blockchain ; receiving and storing by the device , a hash key generated by the permissioned blockchain , as a result of storing at least a portion of the meta-information in the permissioned blockchain ; connecting to the device via a service tool to obtain the hash key ; verifying the hash key with the permissioned block chain ; and if the verifying is successful, communicating device information to a cloud service , the cloud service in communication with the IoT Hub to enable the commissioning. preparing a device for commissioning, the preparing including providing the device with meta-information and a set of cryptographic keys ; initializing the device , the initializing configured to facilitate communication with a permissioned blockchain by a trusted user ; storing at least a portion of the meta-information in the permissioned blockchain ; receiving and storing by the device , a hash key generated by the permissioned blockchain , as a result of storing at least a portion of the meta-information in the permissioned blockchain ; connecting to the device via a service tool to obtain the hash key ; verifying the hash key with the permissioned block chain ; and if the verifying is successful, communicating device information to a cloud service , the cloud service in communication with the IoT Hub to enable the commissioning.
An electronic device (100; 200; 300) comprising: a display (120; 220); a plurality of circuit boards (107, 112; 210 1-n ; 307, 312); a main chassis element configured to support the display (120; 220); and a plurality of chassis enclosures, wherein each of the plurality of circuit boards (107, 112; 210 1-n ; 307, 312) is separately housed by a chassis enclosure, and wherein each chassis enclosure includes a front housing (106, 111; 306, 311) and a back housing (108, 113; 308, 313), the front housing (106, 111; 306, 311) and back housing (108, 113; 308, 313) configured to retain a circuit board (107, 112; 210 1-n ; 307, 312), and at least one heat dissipation element, wherein the plurality of chassis enclosures are mounted to provide an air gap for heat dissipation between each chassis enclosure, wherein each chassis enclosure is formed of a heat sinking material and wherein one or more heat spreading elements of the chassis enclosure extends into the air gap between chassis enclosures, wherein each chassis enclosure electrically shields a retained circuit board (107, 112; 210 1-n ; 307, 312), and wherein the heat spreading elements in the air gap between two chassis enclosures are separated from each other. a display (120; 220); a plurality of circuit boards (107, 112; 210 1-n ; 307, 312); a main chassis element configured to support the display (120; 220); and a plurality of chassis enclosures, wherein each of the plurality of circuit boards (107, 112; 210 1-n ; 307, 312) is separately housed by a chassis enclosure, and wherein each chassis enclosure includes a front housing (106, 111; 306, 311) and a back housing (108, 113; 308, 313), the front housing (106, 111; 306, 311) and back housing (108, 113; 308, 313) configured to retain a circuit board (107, 112; 210 1-n ; 307, 312), and at least one heat dissipation element, a front housing (106, 111; 306, 311) and a back housing (108, 113; 308, 313), the front housing (106, 111; 306, 311) and back housing (108, 113; 308, 313) configured to retain a circuit board (107, 112; 210 1-n ; 307, 312), and at least one heat dissipation element, wherein the plurality of chassis enclosures are mounted to provide an air gap for heat dissipation between each chassis enclosure, wherein each chassis enclosure is formed of a heat sinking material and wherein one or more heat spreading elements of the chassis enclosure extends into the air gap between chassis enclosures, wherein each chassis enclosure electrically shields a retained circuit board (107, 112; 210 1-n ; 307, 312), and wherein the heat spreading elements in the air gap between two chassis enclosures are separated from each other.
A display system comprising: a light source comprising a plurality of spatially distinct light output locations ; a spatial light modulator configured to modulate light from the light source ; projection optics mounted on a frame and configured to direct light from the spatial light modulator into an eye of a viewer, wherein the display system is configured to display a virtual object on a depth plane by temporally sequentially injecting a set of parallactically-disparate intra-pupil images of the object into the eye ; characterized in that injecting the set of parallactically-disparate intra-pupil images comprises selecting a lateral separation between active ones of the light output locations based upon a distance of the depth plane from the eye of the viewer, wherein the lateral separation between the active ones of the light output locations for the intra-pupil images increases with decreasing distance of the depth plane to the viewer. a light source comprising a plurality of spatially distinct light output locations ; a spatial light modulator configured to modulate light from the light source ; projection optics mounted on a frame and configured to direct light from the spatial light modulator into an eye of a viewer, wherein the display system is configured to display a virtual object on a depth plane by temporally sequentially injecting a set of parallactically-disparate intra-pupil images of the object into the eye ; characterized in that injecting the set of parallactically-disparate intra-pupil images comprises selecting a lateral separation between active ones of the light output locations based upon a distance of the depth plane from the eye of the viewer, wherein the lateral separation between the active ones of the light output locations for the intra-pupil images increases with decreasing distance of the depth plane to the viewer.
An antistatic shoe insole comprising: a flexible foam body having a top surface and a bottom working surface ; an antistatic layer , wherein the antistatic layer is disposed on top of the foam body , wherein a plurality of antistatic filaments of the antistatic layer are embedded in the flexible foam body , wherein the antistatic filaments are configured to dissipate the electrical static charge, and wherein an end portion of the plurality of filaments of the antistatic layer extend to the bottom working surface of the foam body so as to be exposed exteriorly, characterised in that the plurality of filaments are substantially uniformly interspersed throughout the foam body . a flexible foam body having a top surface and a bottom working surface ; an antistatic layer , wherein the antistatic layer is disposed on top of the foam body , wherein a plurality of antistatic filaments of the antistatic layer are embedded in the flexible foam body , wherein the antistatic filaments are configured to dissipate the electrical static charge, and wherein an end portion of the plurality of filaments of the antistatic layer extend to the bottom working surface of the foam body so as to be exposed exteriorly, characterised in that the plurality of filaments are substantially uniformly interspersed throughout the foam body .
A fiber-reinforced pressure vessel with an inner vessel made from a thermoplastic material to accommodate a filling medium with an outer side and a fiber composite layer arranged around the outer side to provide a pressure resistance of the pressure vessel , and at least one valve connection connected to inner vessel and fiber composite layer , wherein a thermoplastic band is additionally applied at least in some regions to the outer side of the inner vessel , wherein the thermoplastic band has at least one matrix material made from a material identical to the inner vessel, characterized in that the fiber composite layer is a layer with several plies (F1, ..., Fn) made from fiber composite material embedded in a matrix material and the thermoplastic band is interwoven with at least one ply (F1) facing the inner vessel .