mhurhangee/ep-ind-claims huggingface dataset:
An arrangement for forming holes for implants in a jaw bone (28, 34), the arrangement comprising a template (30, 35) being adapted to the shape(s) of the jaw bone and of the gum, the template having two or more side holes or recesses (26, 27) through which anchoring elements in use are arranged to extend, and the template having guide holes for a hole-forming unit, wherein the template is designed for application to the jaw bone with the gum lying in between, and two or more anchoring elements (32, 37) cooperating with the template, the two or more anchoring elements being intended to extend through the gum and into the jaw bone, wherein the routes for the anchoring elements (32, 37) are arranged as a function of or to avoid nerve paths in the jaw bone when the template (30, 35) and anchoring elements are used.
An exoskeleton structure comprising: - a leg part (35, 45) intended to be fastened to a leg of a user, - a foot part (37, 47) intended to be fastened to a foot of a user, - a mechanical linking assembly (36, 46) connecting the leg part (35, 45) to the foot part (37, 47), comprising a first pivot (361, 461) allowing rotation of the foot part (37, 47) relative to the leg part (35, 45) around a first axis of rotation during an internal/external rotation movement of the foot of the user, and a second pivot (365, 465) allowing rotation of the foot part (37, 47) relative to the leg part (35, 45) around a second axis of rotation during an eversion/inversion movement of the ankle of the user, the first pivot (361, 461) being arranged so that the first pivot (361, 461) is positioned on one side of the leg part (35, 45), the leg part (35, 45) being located between a sagittal plane of the user and the first pivot (361, 461), the first pivot (361, 461) being in addition positioned at a height greater than or equal to 20 centimeters from the ground when the user is standing, in the anatomical reference position, the first axis of rotation being oriented so that the distance between the first axis of rotation and the second axis of rotation is less than or equal to 5 centimeters, and the first axis of rotation being oriented so that it forms a first nonzero angle (α) relative to a vertical direction when the user is standing, in the anatomical reference position, said first angle being comprised between 1 and 30 degrees. - a leg part (35, 45) intended to be fastened to a leg of a user, - a foot part (37, 47) intended to be fastened to a foot of a user, - a mechanical linking assembly (36, 46) connecting the leg part (35, 45) to the foot part (37, 47), comprising a first pivot (361, 461) allowing rotation of the foot part (37, 47) relative to the leg part (35, 45) around a first axis of rotation during an internal/external rotation movement of the foot of the user, and a second pivot (365, 465) allowing rotation of the foot part (37, 47) relative to the leg part (35, 45) around a second axis of rotation during an eversion/inversion movement of the ankle of the user, the first pivot (361, 461) being arranged so that the first pivot (361, 461) is positioned on one side of the leg part (35, 45), the leg part (35, 45) being located between a sagittal plane of the user and the first pivot (361, 461), the first pivot (361, 461) being in addition positioned at a height greater than or equal to 20 centimeters from the ground when the user is standing, in the anatomical reference position, the first axis of rotation being oriented so that the distance between the first axis of rotation and the second axis of rotation is less than or equal to 5 centimeters, and the first axis of rotation being oriented so that it forms a first nonzero angle (α) relative to a vertical direction when the user is standing, in the anatomical reference position, said first angle being comprised between 1 and 30 degrees.
A device for the external fixation of bones comprising: (i) at least one external support element, (ii) a plurality of bone pins, and (iii) at least one fixing element for fixing a bone pin to the support element, characterized in that the fixing element comprises a top plate, a bottom plate, a plurality of wire elements, wherein the top plate and the bottom plate are spaced part to receive a bone pin between them, wherein the bottom plate is in contact with the support element, and wherein the wire elements (3a, 3b) are fixed into the top plate, slidingly pass through the bottom plate and are adapted to fit around the support element. (i) at least one external support element, (ii) a plurality of bone pins, and (iii) at least one fixing element for fixing a bone pin to the support element, characterized in that the fixing element comprises a top plate, a bottom plate, a plurality of wire elements, wherein the top plate and the bottom plate are spaced part to receive a bone pin between them, wherein the bottom plate is in contact with the support element, and wherein the wire elements (3a, 3b) are fixed into the top plate, slidingly pass through the bottom plate and are adapted to fit around the support element. characterized in that the fixing element comprises a top plate, a bottom plate, a plurality of wire elements, wherein the top plate and the bottom plate are spaced part to receive a bone pin between them, wherein the bottom plate is in contact with the support element, and wherein the wire elements (3a, 3b) are fixed into the top plate, slidingly pass through the bottom plate and are adapted to fit around the support element.
A turbine flowpath apparatus for a gas turbine engine having a centerline axis, the apparatus comprising: an annular flowpath member comprising ceramic matrix composite material, the flowpath member having a flowpath surface and an opposed back surface, and having a cross-sectional shape comprising a generally cylindrical forward section and an aft section that extends aft and radially outward at a non-perpendicular, non-parallel angle to the centerline axis; an annular stationary structure surrounding the flowpath member; and an annular centering spring disposed between the stationary structure and the flowpath member, the centering spring urging the flowpath member towards a centered position within the stationary structure; characterized in that: the apparatus further includes radial pins fixed to the centering spring and extending into corresponding slots formed in the back surface of the flowpath member, so as to prevent relative lateral movement and relative rotation of the flowpath member and the centering spring. an annular flowpath member comprising ceramic matrix composite material, the flowpath member having a flowpath surface and an opposed back surface, and having a cross-sectional shape comprising a generally cylindrical forward section and an aft section that extends aft and radially outward at a non-perpendicular, non-parallel angle to the centerline axis; an annular stationary structure surrounding the flowpath member; and an annular centering spring disposed between the stationary structure and the flowpath member, the centering spring urging the flowpath member towards a centered position within the stationary structure;
A distributed antenna system comprising: a master unit configured for interfacing with at least one signal source; a plurality of remote units (872, 874, 876) at known locations coupled with the master unit and configured for interfacing with a user device, characterized by a remote unit (872, 874, 876) including: filtering circuitry for decomposing uplink signals from a user device into a plurality of narrowband signals; processing circuitry for evaluating the plurality of uplink narrowband signals and providing data for a power profile that is associated with the uplink signals of a specific user device; location measurement circuitry coupled with the remote units (872, 874, 876) and configured to receive data for a plurality of different power profiles from a plurality of different remote units (872, 874, 876) wherein the plurality of power profiles are associated with the same specific user device, the location measurement circuitry configured for processing the power profile data from the different remote units (872, 874, 876) to determine the location of the specific user device in an area of the distributed antenna system. a master unit configured for interfacing with at least one signal source; a plurality of remote units (872, 874, 876) at known locations coupled with the master unit and configured for interfacing with a user device, characterized by a remote unit (872, 874, 876) including: filtering circuitry for decomposing uplink signals from a user device into a plurality of narrowband signals; processing circuitry for evaluating the plurality of uplink narrowband signals and providing data for a power profile that is associated with the uplink signals of a specific user device; location measurement circuitry coupled with the remote units (872, 874, 876) and configured to receive data for a plurality of different power profiles from a plurality of different remote units (872, 874, 876) wherein the plurality of power profiles are associated with the same specific user device, the location measurement circuitry configured for processing the power profile data from the different remote units (872, 874, 876) to determine the location of the specific user device in an area of the distributed antenna system. filtering circuitry for decomposing uplink signals from a user device into a plurality of narrowband signals; processing circuitry for evaluating the plurality of uplink narrowband signals and providing data for a power profile that is associated with the uplink signals of a specific user device; location measurement circuitry coupled with the remote units (872, 874, 876) and configured to receive data for a plurality of different power profiles from a plurality of different remote units (872, 874, 876) wherein the plurality of power profiles are associated with the same specific user device, the location measurement circuitry configured for processing the power profile data from the different remote units (872, 874, 876) to determine the location of the specific user device in an area of the distributed antenna system.
A method of selecting a route for transmission of a plurality of messages to users, comprising: identifying a primary route being used to transmit a plurality of messages to users, wherein the primary route comprises one or more channels each associated with a particular message type; identifying one or more alternate routes for potentially transmitting the plurality of messages to users, wherein each alternate route comprises one or more channels each associated with a particular message type; the method characterised by tracking over a period of time an average length of time to receive delivery receipts indicating that messages transmitted over a particular channel of the primary route have been delivered to users; evaluating at least one factor associated with the primary route with respect to at least one corresponding factor associated with each alternate route, wherein the at least one factor comprises average channel delivery receipt delay, and wherein evaluating the factor comprises determining that the average channel delivery receipt delay of the particular channel of the primary route exceeds a maximum delay threshold; and based on the evaluation, determining whether one of the alternate routes should replace the primary route for transmission of the plurality of messages. identifying a primary route being used to transmit a plurality of messages to users, wherein the primary route comprises one or more channels each associated with a particular message type; identifying one or more alternate routes for potentially transmitting the plurality of messages to users, wherein each alternate route comprises one or more channels each associated with a particular message type; the method characterised by tracking over a period of time an average length of time to receive delivery receipts indicating that messages transmitted over a particular channel of the primary route have been delivered to users; evaluating at least one factor associated with the primary route with respect to at least one corresponding factor associated with each alternate route, wherein the at least one factor comprises average channel delivery receipt delay, and wherein evaluating the factor comprises determining that the average channel delivery receipt delay of the particular channel of the primary route exceeds a maximum delay threshold; and based on the evaluation, determining whether one of the alternate routes should replace the primary route for transmission of the plurality of messages.
A polyurethane reaction system, comprising an isocyanate component that includes at least one polyisocyanate an isocyanate-reactive component that includes a storage stable polyol component having a single phase liquid mixture at 23°C including: a first polyether polyol in an amount from 20 wt% to 90 wt%, based on total weight of the polyol component, the first polyether polyol being a glycol based polyoxypropylene-polyoxyethylene polyether polyol having number average molecular weight from 1500 g/mol to 1975 g/mol and a polyoxyethylene content from 26 wt% and 34 wt% based on a total weight of the first polyether polyol, and a second polyether polyol in an amount from 10 wt% to 80 wt%, based on total weight of the polyol component, the second polyether polyol having a number average molecular weight from 750 g/mol to 4000 g/mol and a melting point higher than 23°C, wherein a cured reaction product of the isocyanate component and the isocyanate-reactive component has a Shore A hardness greater than 60 as measured according to ASTM D-2240, an ultimate tensile strength greater than 4500 psi (31026.4 kPa) as measured according to ASTM D-638, and a compression set at 23°C of less than 15% as measured according to ASTM D-395B. a first polyether polyol in an amount from 20 wt% to 90 wt%, based on total weight of the polyol component, the first polyether polyol being a glycol based polyoxypropylene-polyoxyethylene polyether polyol having number average molecular weight from 1500 g/mol to 1975 g/mol and a polyoxyethylene content from 26 wt% and 34 wt% based on a total weight of the first polyether polyol, and a second polyether polyol in an amount from 10 wt% to 80 wt%, based on total weight of the polyol component, the second polyether polyol having a number average molecular weight from 750 g/mol to 4000 g/mol and a melting point higher than 23°C,
A method of manufacturing a Ni alloy part comprising: a solution treatment step of solution treating a sintered compact, which is obtained by sintering and molding a precipitation hardening Ni alloy powder by metal injection molding, by allowing the sintered compact to hold at a temperature of not lower than 1050°C but not higher than 1250°C for one hour to five hours, followed by cooling to room temperature at a cooling rate equal to or higher than a cooling rate of air cooling, where the precipitation hardening Ni alloy powder includes Ti of 0.65% by mass to 1,15% by mass, inclusive, A1 of 0.20% by mass to 0,80% by mass, inclusive, Cr of 17.00% by mass to 21.00% by mass, inclusive, Nb of 4.75% by mass to 5.50% by mass, inclusive, Mo of 2.80% by mass to 3.30% by mass, inclusive, Ni of 50.00% by mass to 55.00% by mass, inclusive, and the balance including Fe and unavoidable impurities; and an aging treatment step of aging-treating the solution-treated sintered compact by allowing the solution-treated sintered compact to hold at the temperature of not lower than 600°C but not higher than 800°C, followed by cooling to room temperature, wherein in the aging treatment step, the solution-treated sintered compact is allowed to hold at a temperature of 718°C to 760°C, and then is allowed to hold at 621°C to 649°C in a two-step aging treatment. a solution treatment step of solution treating a sintered compact, which is obtained by sintering and molding a precipitation hardening Ni alloy powder by metal injection molding, by allowing the sintered compact to hold at a temperature of not lower than 1050°C but not higher than 1250°C for one hour to five hours, followed by cooling to room temperature at a cooling rate equal to or higher than a cooling rate of air cooling, where the precipitation hardening Ni alloy powder includes Ti of 0.65% by mass to 1,15% by mass, inclusive, A1 of 0.20% by mass to 0,80% by mass, inclusive, Cr of 17.00% by mass to 21.00% by mass, inclusive, Nb of 4.75% by mass to 5.50% by mass, inclusive, Mo of 2.80% by mass to 3.30% by mass, inclusive, Ni of 50.00% by mass to 55.00% by mass, inclusive, and the balance including Fe and unavoidable impurities; and an aging treatment step of aging-treating the solution-treated sintered compact by allowing the solution-treated sintered compact to hold at the temperature of not lower than 600°C but not higher than 800°C, followed by cooling to room temperature, wherein in the aging treatment step, the solution-treated sintered compact is allowed to hold at a temperature of 718°C to 760°C, and then is allowed to hold at 621°C to 649°C in a two-step aging treatment.
Rafter holder for a roofing device, in particular for terrace roofing, comprising a mounting face, configured for mounting the rafter holder on a longitudinal support profile, a fixing face, configured for fixing a rafter on the rafter holder, characterised by an electrical T connector, configured for electrically connecting the mounting face to the fixing face, two T arms (11A, 11B) of the T connector extending along the mounting face and a T foot of the T connector extending from the mounting face to the fixing face, the T connector being inserted into a through-hole which reaches from the mounting face to the fixing face.
A fastening element to be driven in, with 1.1 a fastening element body, which 1.2 has a head with an abutment shoulder on its lower face, and with 1.3 a punch tip forming the front end of the fastening element, and having a cylindrical outer contour, which 1.4 has an end face, 1.5 the peripheral edge of which is formed by a line of intersection between the end face and the cylindrical outer contour of the punch tip, characterised in that, 1.6 the end face has a punch section, which firstly impinges onto a workpiece, and 1.7 a compression section, which lastly impinges onto the workpiece. 1.1 a fastening element body, which 1.2 has a head with an abutment shoulder on its lower face, and with 1.3 a punch tip forming the front end of the fastening element, and having a cylindrical outer contour, which 1.4 has an end face, 1.5 the peripheral edge of which is formed by a line of intersection between the end face and the cylindrical outer contour of the punch tip, characterised in that, 1.6 the end face has a punch section, which firstly impinges onto a workpiece, and 1.7 a compression section, which lastly impinges onto the workpiece.
A heat pump dishwasher comprising: a chassis, and a heat pump system comprising an evaporator and a compressor, wherein both the evaporator and the compressor are installed at the chassis, and characterised in that a liquid collecting groove (a) is provided at an upper side of the chassis, the compressor is installed at the liquid collecting groove (a), and the chassis comprises a liquid storage box, the liquid storage box comprises a box body with an opening facing upward and a cover body for covering the opening, the cover body is partially concave to form the liquid collecting groove (a), the evaporator is installed inside the box body, the compressor is located outside the box body, and heat transfer fluid is stored in the box body. a chassis, and a heat pump system comprising an evaporator and a compressor, wherein both the evaporator and the compressor are installed at the chassis, and characterised in that a liquid collecting groove (a) is provided at an upper side of the chassis, the compressor is installed at the liquid collecting groove (a), and the chassis comprises a liquid storage box, the liquid storage box comprises a box body with an opening facing upward and a cover body for covering the opening, the cover body is partially concave to form the liquid collecting groove (a), the evaporator is installed inside the box body, the compressor is located outside the box body, and heat transfer fluid is stored in the box body.
A hub (107, 300) for satellite communications comprising: an interface to facilitate satellite communications between a terminal and satellites (104-1, 104-2) in a constellation for a geographic region, the terminal includes one or more antennas, each antenna having an aperture with a receive portion to receive radio frequency, RF, signals and a transmit portion to transmit RF signals; and one or more processors coupled to the interface, the one or more processors configured to implement a broker for the hub (107, 300), the broker is to plan and facilitate RF links between the terminal and satellites (104-1, 104-2) in the constellation based on one more characteristics for satellite communications, and wherein the broker is to schedule which RF links to use for the one or more antennas of the terminal from one or more satellites (104-1, 104-2) to another satellite (104-1, 104-2) or set of satellites (104-1, 104-2) based on terminal characteristics including projected path of the terminal vehicle. an interface to facilitate satellite communications between a terminal and satellites (104-1, 104-2) in a constellation for a geographic region, the terminal includes one or more antennas, each antenna having an aperture with a receive portion to receive radio frequency, RF, signals and a transmit portion to transmit RF signals; and one or more processors coupled to the interface, the one or more processors configured to implement a broker for the hub (107, 300), the broker is to plan and facilitate RF links between the terminal and satellites (104-1, 104-2) in the constellation based on one more characteristics for satellite communications, and