mhurhangee/ep-ind-claims huggingface dataset:
A structural mounting insert for use during mounting of a first and second member (12,14), the structural mounting insert being configured to be placed between and to seal the connection regions of the first and second member from the surrounding environment, the structural mounting insert comprising: a base member configured for location in a connection region between the first and second member, the base member defining a plurality of openings extending therethrough; a heat activatable material encased over at least a portion of the base formed of structural mesh material and in the plurality of openings formed therethrough, the heat activatable material being formed of a pliable material, wherein, upon mounting of the first and second member, the heat activatable material displaces to allow direct contact between the base member and both the first and second member (12, 14) such that the base member acts as a spacer to form and generally maintain a substantially continuous gap between the first and second member, characterised in that the base member, the activatable material or both define one or more openings that receive portion of the first member or the second member and are configured to receive at least one fastener that extends from the first member or the second member and that, upon application of heat, the heat activatable material expands to seal the base member and the connection region between the first and second members from the surrounding environment and to fill the surrounding area where the at least one extends into the one or more openings of the structural mounting insert. a base member configured for location in a connection region between the first and second member, the base member defining a plurality of openings extending therethrough; a heat activatable material encased over at least a portion of the base formed of structural mesh material and in the plurality of openings formed therethrough, the heat activatable material being formed of a pliable material, wherein, upon mounting of the first and second member, the heat activatable material displaces to allow direct contact between the base member and both the first and second member (12, 14) such that the base member acts as a spacer to form and generally maintain a substantially continuous gap between the first and second member,
A method for producing a conductive material, the method comprising the step of: sintering a first conductive material composition that contains silver particles having an average particle diameter (median diameter) of 0.1 μm to 15 μm, and a metal oxide, so as to obtain a conductive material, wherein the sintering step is carried out at a temperature in a range of 150°C to 320°C, wherein portions at which the silver particles are in contact with one another are fused by sintering to provide voids, and a voidage is 5 vol% to 35 vol%. wherein the sintering step is carried out at a temperature in a range of 150°C to 320°C, wherein portions at which the silver particles are in contact with one another are fused by sintering to provide voids, and a voidage is 5 vol% to 35 vol%.
Method for continuously casting a blank of a metal section, the cross-section of which has at least one portion, the concavity of which is directed towards the exterior of the section, whereby a liquid metal is poured into a continuous casting ingot mould comprising a cooled ingot mould body, which ingot mould body defines a sprue channel having a cross-section corresponding to the cross-section of the blank, the cross-section of the sprue channel comprising at least two adjacent portions (110; 111A, 111B) connected by a concave portion (112A, 112B), the concavity of which is directed towards the exterior of the sprue channel, the sprue channel of the ingot mould having a conicity C, a length L C, a minimum transverse thickness E min, the core of the blank having a solidification time t s, characterised in that, once priming has been carried out, the extraction speed is maintained above a minimum extraction speed Vmin = (L C / t s) x A/ (A + L C CE min).
A method performed by a first infrastructure equipment for a handover of a wireless communications device from the first infrastructure equipment as a source to a second infrastructure equipment as a target, the method comprising maintaining a mapping between a plurality of packet bearers for the first infrastructure equipment and a data radio bearer for the wireless communications device, each of the plurality of packet bearers being configured to provide a specified quality of service, receiving, from a core network equipment, an indication of a mapping between one or more packet bearers for the second infrastructure equipment after the handover and the plurality of packet bearers for the first infrastructure equipment, determining that the wireless communications device should handover from the first infrastructure equipment to the second infrastructure equipment, determining that the second infrastructure equipment does not support the mapping of the plurality of packet bearers to the data radio bearer, transmitting, to the second infrastructure equipment, a request for the handover of the wireless communications device, and providing, to the second infrastructure equipment, an indication of a configuration of the one or more packet bearers for the second infrastructure equipment after the handover.
An optical fiber(51, 52, 53, 54, 100), comprising: a core having a refractive index at a wavelength of 1.55 μm being equal to or less than 1.444377; a first clad that is provided on an outer circumferential portion of the core and has a refractive index lower than that of the core; and a second clad that is provided on an outer circumferential portion of the first clad and has a refractive index lower than that of the first clad, wherein a mode field diameter at a wavelength of 1.55 μm is equal to or greater than 11.5 μm, wherein a cutoff wavelength is equal to or less than 1.53 μm, wherein a bending loss at a bending radius of 30 mm and a wavelength of 1.625 μm is equal to or less than 2.0 dB/100 turns, and wherein a delay time of transmission light per unit length at a wavelength of 1.55 μm is equal to or less than 4.876 μs/km, characterized in that a radius of the core is equal to or greater than 1.0 μm and equal to or less than 4.3 μm, and wherein a radius of the first clad satisfies Equations and: [Equation 1] a 2 ≥ 2 1.43 a 1 − 1.45 2 − Δ 1 + 1.43 a 1 − 1.45 2 − 0.50 a 1 − 0.37; and [Equation 2] 5.56 − 3.94 log 1 + Δ 1 0.19 + 0.69 a 1 − 2.00 ≤ a 2 ≤ 7.68 + 1.14 − 2.51 a 1 log 1 + Δ 1 0.81 a 1 − 0.77, where a 1 in Equations and represents the radius [μm] of the core, a 2 represents the radius [μm] of the first clad, and Δ 1 represents a relative refractive index difference [%] of the first clad from the core. a core having a refractive index at a wavelength of 1.55 μm being equal to or less than 1.444377; a first clad that is provided on an outer circumferential portion of the core and has a refractive index lower than that of the core; and a second clad that is provided on an outer circumferential portion of the first clad and has a refractive index lower than that of the first clad, wherein a mode field diameter at a wavelength of 1.55 μm is equal to or greater than 11.5 μm, wherein a cutoff wavelength is equal to or less than 1.53 μm, wherein a bending loss at a bending radius of 30 mm and a wavelength of 1.625 μm is equal to or less than 2.0 dB/100 turns, and wherein a delay time of transmission light per unit length at a wavelength of 1.55 μm is equal to or less than 4.876 μs/km, characterized in that a radius of the core is equal to or greater than 1.0 μm and equal to or less than 4.3 μm, and wherein a radius of the first clad satisfies Equations and: [Equation 1] a 2 ≥ 2 1.43 a 1 − 1.45 2 − Δ 1 + 1.43 a 1 − 1.45 2 − 0.50 a 1 − 0.37; and [Equation 2] 5.56 − 3.94 log 1 + Δ 1 0.19 + 0.69 a 1 − 2.00 ≤ a 2 ≤ 7.68 + 1.14 − 2.51 a 1 log 1 + Δ 1 0.81 a 1 − 0.77, where a 1 in Equations and represents the radius [μm] of the core, a 2 represents the radius [μm] of the first clad, and Δ 1 represents a relative refractive index difference [%] of the first clad from the core.
A method performed by a user equipment, UE, for securing network steering information, comprises: transmitting a registration request to a Visited Public Land Mobile Network, VPLMN; upon successful authentication by an authentication server function, AUSF, generating a home network root key; receiving, from a first network node, a protected message comprising Network Steering Information, which is protected using a configuration key, Kconf, and a first Message Authentication Code, MAC-1; determining the configuration key, Kconf, from the home network root key; verifying, by the UE, the MAC-1; based on the Kconf and the MAC-1, verifying that the VPLMN did not alter Network Steering Information; and transmitting an acknowledgement message to a Home Public Land Mobile Network, HPLMN, the acknowledgement message protected with a second Message Authentication Code, MAC-2. transmitting a registration request to a Visited Public Land Mobile Network, VPLMN; upon successful authentication by an authentication server function, AUSF, generating a home network root key; receiving, from a first network node, a protected message comprising Network Steering Information, which is protected using a configuration key, Kconf, and a first Message Authentication Code, MAC-1; determining the configuration key, Kconf, from the home network root key; verifying, by the UE, the MAC-1; based on the Kconf and the MAC-1, verifying that the VPLMN did not alter Network Steering Information; and transmitting an acknowledgement message to a Home Public Land Mobile Network, HPLMN, the acknowledgement message protected with a second Message Authentication Code, MAC-2.
Actuation device of the control cable of a front derailleur of a bicycle, comprising: - a casing, configured for fixing to bicycle handlebars, - a cable-winding bush mounted in the casing angularly rotatable about a rotation axis in a first angular direction between a first angular position and a last angular position and in a second angular direction between the last angular position and the first angular position to actuate a front derailleur of a bicycle, - a rotating member mounted in the casing in a rotatable manner about the rotation axis and a stationary member mounted in a non-rotatable manner in the casing, wherein one from the rotating member and the stationary member is provided with at least one pointer (15, 16) slidably engaged on a fastening track equipped with a plurality of stop areas provided on the other member, - the stationary member or the rotating member provided with said fastening track and characterised in that it further comprises at least one further stop area not arranged along said fastening track, - said further stop area being engageable by said pointer (15, 16) and being arranged between two successive stop areas of said fastening track, - the cable-winding bush passing between two angular positions following the passage of the pointer (15, 16) between two stop areas. - a casing, configured for fixing to bicycle handlebars, - a cable-winding bush mounted in the casing angularly rotatable about a rotation axis in a first angular direction between a first angular position and a last angular position and in a second angular direction between the last angular position and the first angular position to actuate a front derailleur of a bicycle, - a rotating member mounted in the casing in a rotatable manner about the rotation axis and a stationary member mounted in a non-rotatable manner in the casing, wherein one from the rotating member and the stationary member is provided with at least one pointer (15, 16) slidably engaged on a fastening track equipped with a plurality of stop areas provided on the other member, - the stationary member or the rotating member provided with said fastening track and characterised in that it further comprises at least one further stop area not arranged along said fastening track, - said further stop area being engageable by said pointer (15, 16) and being arranged between two successive stop areas of said fastening track, - the cable-winding bush passing between two angular positions following the passage of the pointer (15, 16) between two stop areas.
An additive for stabilization of sodium acetate trihydrate, which can be obtained by means of emulsion polymerization of at least one hydrophilic monomer, wherein the monomer comprises an acrylic acid derivative of sulfonic acid or of phosphonic acid or a salt of sulfonic acid or phosphonic acid, and a redox initiator system, wherein sodium persulfate, potassium pyrosulfite, and iron sulfate are used as a redox initiator system, and wherein the additive was obtained using a cross-linking agent.
Data cable with at least two conductors for a differential transmission of data signals as well as a casing which surrounds the conductors, wherein each of the conductors has a conductor shield, characterised in that the conductors are surrounded by an additional common shielding in the form of a collective shield, wherein the conductor shields are in electrical contact with the collective shield.
A method for determining the concentration of mercury present in a sample, the method comprising: contacting a sample to a mercury sensor comprising: a transparent substrate; and a monolayer of spherical gold nanoparticles on a surface of the substrate wherein the spherical gold nanoparticles have an average diameter of 5nm; directing light from a light source to the sample-contacted mercury sensor; detecting a localized surface plasmon resonance (LSPR) wavelength from the spherical gold nanoparticles; characterized by: quantifying the concentration of mercury present in the sample based on a shift rate in the detected LSPR wavelength, and regenerating the mercury sensor, wherein the regenerating comprises heating the mercury sensor to a temperature of 433 Kelvin for one hour. contacting a sample to a mercury sensor comprising: a transparent substrate; and a monolayer of spherical gold nanoparticles on a surface of the substrate wherein the spherical gold nanoparticles have an average diameter of 5nm; a transparent substrate; and a monolayer of spherical gold nanoparticles on a surface of the substrate wherein the spherical gold nanoparticles have an average diameter of 5nm; directing light from a light source to the sample-contacted mercury sensor; detecting a localized surface plasmon resonance (LSPR) wavelength from the spherical gold nanoparticles; characterized by: quantifying the concentration of mercury present in the sample based on a shift rate in the detected LSPR wavelength, and regenerating the mercury sensor, wherein the regenerating comprises heating the mercury sensor to a temperature of 433 Kelvin for one hour.
A method for establishing a bearer for a GSM network, comprising: receiving (213, 223), by a Media Gateway, MGW, a message for adding a wireless side end point; assigning, by the MGW, an IP address and a port number for a call; transmitting (214, 224), by the MGW, a response message comprising the IP address and the port number assigned for the call to a Mobile Switching Center, MSC, server; and acquiring, by the MGW, an IP address and a port number assigned for the call by a Base Station Controller, BSC, from the MSC server, and establishing an IP bearer with the BSC, wherein before the receiving the message for adding a wireless side end point, the method further comprises: receiving (211, 221), by the MSC server, a call request message transmitted by a mobile station, the call request message containing information about code types supported by the mobile station; establishing, by the MSC server, a code type priority list according to the call request message; and transmitting (213, 223), by the MSC server, to the MGW the message for adding a wireless side end point. receiving (213, 223), by a Media Gateway, MGW, a message for adding a wireless side end point; assigning, by the MGW, an IP address and a port number for a call; transmitting (214, 224), by the MGW, a response message comprising the IP address and the port number assigned for the call to a Mobile Switching Center, MSC, server; and acquiring, by the MGW, an IP address and a port number assigned for the call by a Base Station Controller, BSC, from the MSC server, and establishing an IP bearer with the BSC, wherein before the receiving the message for adding a wireless side end point, the method further comprises: receiving (211, 221), by the MSC server, a call request message transmitted by a mobile station, the call request message containing information about code types supported by the mobile station; establishing, by the MSC server, a code type priority list according to the call request message; and transmitting (213, 223), by the MSC server, to the MGW the message for adding a wireless side end point. receiving (211, 221), by the MSC server, a call request message transmitted by a mobile station, the call request message containing information about code types supported by the mobile station; establishing, by the MSC server, a code type priority list according to the call request message; and transmitting (213, 223), by the MSC server, to the MGW the message for adding a wireless side end point.
A process for producing high purity carbon monoxide by membrane purification of CO produced in a solid oxide electrolysis cell (SOEC), said process comprising the following steps: generating a gaseous mixture of CO and CO 2 by SOEC electrolysis of CO 2, applying a moderate pressure on the retentate side of the membrane in one or more membrane units connected to the exit of the SOEC via a compressor or an ejector, applying a lower pressure than the pressure in step on the permeate side of the membrane, splitting the retentate stream, which is now enriched in CO, into two separate parts, expanding the first part of the retentate stream to reach the permeate low pressure conditions, leading the above-mentioned part of the retentate to the permeate side of the membrane to lower the partial pressure of CO 2 on this side, and recycling the outlet permeate stream back to the SOEC as a feed gas together with fresh CO 2. generating a gaseous mixture of CO and CO 2 by SOEC electrolysis of CO 2, applying a moderate pressure on the retentate side of the membrane in one or more membrane units connected to the exit of the SOEC via a compressor or an ejector, applying a lower pressure than the pressure in step on the permeate side of the membrane, splitting the retentate stream, which is now enriched in CO, into two separate parts, expanding the first part of the retentate stream to reach the permeate low pressure conditions, leading the above-mentioned part of the retentate to the permeate side of the membrane to lower the partial pressure of CO 2 on this side, and recycling the outlet permeate stream back to the SOEC as a feed gas together with fresh CO 2.
Device for attaching a positioning device to a bone of a patient at a predetermined position relative to a hip implant comprising: a trial hip implant with a support surface for resting on said bone of the patient; and a template that can be secured to said trial hip implant and has at least one cylindrical opening (101, 102, 103, 104) with a longitudinal axis (105, 106, 107, 108); wherein said trial hip implant is shaped such that any straight line which runs through one of said at least one cylindrical opening (101, 102, 103, 104) and is parallel to said longitudinal axis (105, 106, 107, 108) of said respective opening (101, 102, 103, 104) does not intersect said trial hip implant when said template is secured to said trial hip implant; characterized in that said trial hip implant comprises a section having a general shape of a spherical dome shell and an edge section, and said template on one side facing said trial hip implant when said template is secured to said trial hip implant has a surface with a section having a shape that is complementary to said edge section; and said trial hip implant has a slit-shaped notch that extends through said section having the general shape of a spherical dome shell and said edge section, wherein it is for at least one of said at least one cylindrical opening (101, 102, 103, 104) true that any straight line extending through said opening and being parallel to the longitudinal axis of said opening extends through said slit-shaped notch when said template is secured to said trial hip implant. a trial hip implant with a support surface for resting on said bone of the patient; and a template that can be secured to said trial hip implant and has at least one cylindrical opening (101, 102, 103, 104) with a longitudinal axis (105, 106, 107, 108); wherein said trial hip implant is shaped such that any straight line which runs through one of said at least one cylindrical opening (101, 102, 103, 104) and is parallel to said longitudinal axis (105, 106, 107, 108) of said respective opening (101, 102, 103, 104) does not intersect said trial hip implant when said template is secured to said trial hip implant; characterized in that said trial hip implant comprises a section having a general shape of a spherical dome shell and an edge section, and said template on one side facing said trial hip implant when said template is secured to said trial hip implant has a surface with a section having a shape that is complementary to said edge section; and said trial hip implant has a slit-shaped notch that extends through said section having the general shape of a spherical dome shell and said edge section, wherein it is for at least one of said at least one cylindrical opening (101, 102, 103, 104) true that any straight line extending through said opening and being parallel to the longitudinal axis of said opening extends through said slit-shaped notch when said template is secured to said trial hip implant.