mhurhangee/ep-ind-claims huggingface dataset:
An implant comprising a dense body made of titanium or titanium alloy, coated with a porous layer (3, 4) made of titanium or titanium alloy, characterized in that the porous layer (3, 4) comprises a deposition of PolyNaSS applied by grafting.
A first communication device configured to perform communication through a bus, comprising: a transmitting and receiving unit configured to transmit and receive a signal to and from one or more second communication devices (13-1; 13-2; 13-3); and an error detection unit configured to detect, when the transmitting and receiving unit transmits the signal, whether an error has occurred in the signal by using an error detection method according to transmission and reception of the signal, wherein the signal is transmitted and received between the first communication device and one of the one or more second communication devices (13-1; 13-2; 13-3), and wherein the first communication device is configured to have a communication initiative through the bus, and wherein a first word of a frame head within the signal comprises a bit stream which comprises predetermined 7 bits indicating a broadcast command and one bit indicating a data read or write request, which indicates data write, wherein the broadcast command is for notifying of simultaneous transmission of a command for switching a transmission scheme to high data rate transmission, to all of the one or more second communication devices (13-1; 13-2; 13-3) as a target. a transmitting and receiving unit configured to transmit and receive a signal to and from one or more second communication devices (13-1; 13-2; 13-3); and an error detection unit configured to detect, when the transmitting and receiving unit transmits the signal, whether an error has occurred in the signal by using an error detection method according to transmission and reception of the signal, wherein the signal is transmitted and received between the first communication device and one of the one or more second communication devices (13-1; 13-2; 13-3), and wherein the first communication device is configured to have a communication initiative through the bus, and wherein a first word of a frame head within the signal comprises a bit stream which comprises predetermined 7 bits indicating a broadcast command and one bit indicating a data read or write request, which indicates data write, wherein the broadcast command is for notifying of simultaneous transmission of a command for switching a transmission scheme to high data rate transmission, to all of the one or more second communication devices (13-1; 13-2; 13-3) as a target.
A machine for drilling, under fluid circulation, a ground covered with a porous layer, for example a ballast layer, wherein the machine includes: - a drive head for driving in rotation a drill pipe, and - means for circulating a drilling fluid configured to inject a drilling fluid through the drill pipe, wherein the machine is also configured to insert, through the porous layer, a protection tube extending around the drill pipe and leaving a tubular interspace between the drill pipe and the protection tube, and wherein the machine also comprises first means for recovering the drilling fluid configured, upon insertion of the protection tube through the porous layer, to draw, from the upper end of the protection tube, the drilling fluid coming from the drill pipe and present at the lower end of the protection tube. - a drive head for driving in rotation a drill pipe, and - means for circulating a drilling fluid configured to inject a drilling fluid through the drill pipe,
Heat sink for a lamp, having - a plate-like region, which extends in a plane and therefore defines, in relation to the plane, a first side (u) and a second side, which is located opposite the first side, - a first accommodating region for a first light source, the first accommodating region extending at least predominantly on the first side (u) of the plane, - a second accommodating region for a second light source, the second accommodating region extending at least predominantly on the first side (u) of the plane, wherein the first accommodating region forms a first opening, which extends on the first side (u) and is intended for the through-passage of light radiated from the first light source, and the second accommodating region forms a second opening, which is oriented in the direction of the second side (o) and is intended for the through-passage of light radiated from the second light source, characterized in that the heat sink is also configured for the purpose of retaining a plate-like light guide such that, in the retained state, the light guide extends between the first accommodating region and the second accommodating region. - a plate-like region, which extends in a plane and therefore defines, in relation to the plane, a first side (u) and a second side, which is located opposite the first side, - a first accommodating region for a first light source, the first accommodating region extending at least predominantly on the first side (u) of the plane, - a second accommodating region for a second light source, the second accommodating region extending at least predominantly on the first side (u) of the plane,
A press plate for creating deep structures in panel-like products, in particular in wood-based boards or laminates made of resin-coated papers, composed of a metallic base body with strip-shaped and/or frame-like webs (2, 3), characterized in that the webs are inserted in depressions provided in the base body and have a higher thermal conductivity than the base body, wherein the deep structures are created by the webs (2, 3).
A lubricant scoop (200, 300, 400), comprising: an annular body (202, 302, 410) configured for engagement with a shaft rotating about a central axis (208, 308, 404), the annular body (202, 302, 410) including a first annular portion (204, 304, 412) having a radially oriented entrance surface (318, 418) and a first axially oriented transition surface (320, 420) and a second annular portion (206, 306, 414) disposed adjacent the first annular portion (204, 304, 412) and having a second axially oriented transition surface (332, 426), a primary redirection member (342, 434) spaced radially outward from the second axially oriented transition surface (332, 426), a radially oriented exit surface (334, 428) and an exit conduit (354, 432) having an opening positioned proximate the radially oriented exit surface (334, 428), wherein the first annular portion (204, 304, 412) includes a circumferential lubricant inlet (350, 416) defined by a space between the radially oriented entrance surface (318, 418) and the primary redirection member (342, 434). an annular body (202, 302, 410) configured for engagement with a shaft rotating about a central axis (208, 308, 404), the annular body (202, 302, 410) including a first annular portion (204, 304, 412) having a radially oriented entrance surface (318, 418) and a first axially oriented transition surface (320, 420) and a second annular portion (206, 306, 414) disposed adjacent the first annular portion (204, 304, 412) and having a second axially oriented transition surface (332, 426), a primary redirection member (342, 434) spaced radially outward from the second axially oriented transition surface (332, 426), a radially oriented exit surface (334, 428) and an exit conduit (354, 432) having an opening positioned proximate the radially oriented exit surface (334, 428), wherein the first annular portion (204, 304, 412) includes a circumferential lubricant inlet (350, 416) defined by a space between the radially oriented entrance surface (318, 418) and the primary redirection member (342, 434).
A process for producing a composition comprising D-mannitol crystals, of which more than 97%, preferentially more than 98% and very preferentially more than 99% of the dry matter thereof consists of D-mannitol, said process comprising the steps of: - producing an initial stock solution of D-mannitol in a solvent, and in the presence of an auxiliary agent, - evaporating said solvent so as to carry out the crystallization of the D-mannitol, through a seeding phase and a crystal growth phase, characterized in that: - during the seeding phase: an evaporation rate by mass of between 0.08 and 0.5 kg of solvent/h/kg of initial stock solution, more preferentially between 0.1 and 0.2 kg of solvent/h/kg of initial stock solution, is applied; - during the growth phase: an evaporation rate by mass of between 0.005 and 0.1 kg of solvent/h/kg of initial stock solution, more preferentially between 0.01 and 0.05 kg of solvent/h/kg of initial stock solution, is applied, and in that - the evaporation step is carried out with stirring and under an absolute vacuum of between 50 mbar and 100 mbar; - the solvent is water; - the auxiliary agent is sorbitol. - producing an initial stock solution of D-mannitol in a solvent, and in the presence of an auxiliary agent, - evaporating said solvent so as to carry out the crystallization of the D-mannitol, through a seeding phase and a crystal growth phase, - during the seeding phase: an evaporation rate by mass of between 0.08 and 0.5 kg of solvent/h/kg of initial stock solution, more preferentially between 0.1 and 0.2 kg of solvent/h/kg of initial stock solution, is applied; - during the growth phase: an evaporation rate by mass of between 0.005 and 0.1 kg of solvent/h/kg of initial stock solution, more preferentially between 0.01 and 0.05 kg of solvent/h/kg of initial stock solution, is applied, and in that - the evaporation step is carried out with stirring and under an absolute vacuum of between 50 mbar and 100 mbar; - the solvent is water; - the auxiliary agent is sorbitol.
A wavelength locker comprising: an athermal asymmetric Mach-Zehnder interferometer "AMZI" comprising an input coupler, two waveguide arms (202, 204), and an output coupler having at least two output ports; placed at the at least two output ports, at least two respective photodetectors (308, 309, 310, 311) for measuring at least two respective optical interference signals exiting the at least two output ports; a temperature sensor to measure a temperature of the AMZI and a strain gauge to measure a strain in the AMZI; and circuitry configured to adjust a locking condition based on the measured temperature and strain, and to tune a frequency of light coupled into the AMZI, based on a feedback parameter derived from the measured optical interference signals, to satisfy the adjusted locking condition, wherein the feedback parameter is the phase difference incurred in the AMZI arms, called "filter phase" and the locking condition is satisfied if the filter phase matches a target filter phase associated with a specified locking frequency, the target filter phase being adjusted based on the measured temperature and strain. an athermal asymmetric Mach-Zehnder interferometer "AMZI" comprising an input coupler, two waveguide arms (202, 204), and an output coupler having at least two output ports; placed at the at least two output ports, at least two respective photodetectors (308, 309, 310, 311) for measuring at least two respective optical interference signals exiting the at least two output ports; a temperature sensor to measure a temperature of the AMZI and a strain gauge to measure a strain in the AMZI; and circuitry configured to adjust a locking condition based on the measured temperature and strain, and to tune a frequency of light coupled into the AMZI, based on a feedback parameter derived from the measured optical interference signals, to satisfy the adjusted locking condition,
An apparatus for wireless communication at a user equipment, UE, comprising: means (610, 710) for determining that a reference signal is associated with a positioning procedure to identify a geographic location of the UE; means (615, 710) for determining, based at least in part on determining that the reference signal is associated with the positioning procedure, an absence of a first parameter associated with a transmit power for transmitting the reference signal; means (620, 710) for determining, based at least in part on the absence of the first parameter, the transmit power; and means for transmitting, via the one or more transceivers and during the positioning procedure, the reference signal according to the transmit power; characterized by: the means for determining the transmit power comprising: means for identifying a maximum target received power at a serving cell and calculating the transmit power based at least in part on the maximum target received power. means (610, 710) for determining that a reference signal is associated with a positioning procedure to identify a geographic location of the UE; means (615, 710) for determining, based at least in part on determining that the reference signal is associated with the positioning procedure, an absence of a first parameter associated with a transmit power for transmitting the reference signal; means (620, 710) for determining, based at least in part on the absence of the first parameter, the transmit power; and means for transmitting, via the one or more transceivers and during the positioning procedure, the reference signal according to the transmit power; characterized by: the means for determining the transmit power comprising: means for identifying a maximum target received power at a serving cell and calculating the transmit power based at least in part on the maximum target received power.
An apparatus (100, 200, 300) for condensing metal vapors comprising: at least one inlet conduit for receiving a mixture of metal vapor and carrier gas; a holding tank for liquid metal operatively connected to the at least one inlet conduit for receiving the mixture of metal vapor and carrier gas from the at least one inlet conduit; at least one outlet conduit operatively connected to the holding tank for receiving the mixture of metal vapor and carrier gas from the holding tank; at least a first cooling device operatively connected to the at least one outlet conduit to cause at least a portion of the metal vapor entering the at least one outlet conduit to condense to solid metal; at least one heater operatively connected to the at least one outlet conduit for causing at least a portion of the solid metal to melt and subsequently flow in to the holding tank; and at least one sealing mechanism located at a distal end of the at least one outlet conduit for sealing the distal end of the at least one outlet conduit and preventing remaining metal vapor and carrier gas from exiting the distal end of the outlet conduit when the outlet conduit is being heated. at least one inlet conduit for receiving a mixture of metal vapor and carrier gas; a holding tank for liquid metal operatively connected to the at least one inlet conduit for receiving the mixture of metal vapor and carrier gas from the at least one inlet conduit; at least one outlet conduit operatively connected to the holding tank for receiving the mixture of metal vapor and carrier gas from the holding tank; at least a first cooling device operatively connected to the at least one outlet conduit to cause at least a portion of the metal vapor entering the at least one outlet conduit to condense to solid metal; at least one heater operatively connected to the at least one outlet conduit for causing at least a portion of the solid metal to melt and subsequently flow in to the holding tank; and at least one sealing mechanism located at a distal end of the at least one outlet conduit for sealing the distal end of the at least one outlet conduit and preventing remaining metal vapor and carrier gas from exiting the distal end of the outlet conduit when the outlet conduit is being heated.
Mixture, containing or consisting of a first compound and a second compound, wherein compounds and are compounds of formula with identical constitutional formula provided that one of the four wavy lines signifies a double bond and the remaining wavy lines signify a single bond, respectively, and X is selected from -CH2- and - CH2-CH2-, and the first compound has trans configuration and the second compound has cis configuration, wherein the weight ratio of compound to compound in the mixture is in the range of 75: 25, preferably of 80: 20, to 90: 10.
A catalyst composition for use in the hydroconversion of a heavy hydrocarbon feedstock, wherein said catalyst composition comprising: a molybdenum component present in said catalyst composition in an amount of less than 12 wt.%, wherein the wt.% is based on the total weight of said catalyst composition and assuming said molybdenum component is in the MoO 3 form regardless of its actual form; a nickel component present in said catalyst composition in an amount such that said catalyst composition has a weight ratio of said nickel component-to-said molybdenum component from 0.3 to 0.9, with said weight ratio computed assuming said nickel component is in the NiO form and said molybdenum component is in the MoO 3 form regardless of their actual forms; and a support material comprising alumina, wherein said support material has a median pore diameter in the range of from 100Å to 140Å and no more than 5% of its total pore volume in the pores having a pore diameter of greater than 210 Å. a molybdenum component present in said catalyst composition in an amount of less than 12 wt.%, wherein the wt.% is based on the total weight of said catalyst composition and assuming said molybdenum component is in the MoO 3 form regardless of its actual form; a nickel component present in said catalyst composition in an amount such that said catalyst composition has a weight ratio of said nickel component-to-said molybdenum component from 0.3 to 0.9, with said weight ratio computed assuming said nickel component is in the NiO form and said molybdenum component is in the MoO 3 form regardless of their actual forms; and a support material comprising alumina, wherein said support material has a median pore diameter in the range of from 100Å to 140Å and no more than 5% of its total pore volume in the pores having a pore diameter of greater than 210 Å.
A method for encoding a soundfield representation, referred to as SR, input signal (101, 301) describing a soundfield at a reference position; wherein the SR input signal (101, 301) comprises a plurality of channels for a plurality of different directivity patterns of the soundfield at the reference position; wherein the method comprises, - extracting one or more audio objects (103, 303) from the SR input signal (101, 301); wherein an audio object (103, 303) comprises an object signal and object metadata indicating a position of the audio object (103, 303); - determining a residual signal (102, 302) based on the SR input signal (101, 301) and based on the one or more audio objects (103, 303); - downmixing the SR input signal to a SR downmix signal (101, 304); - performing joint object coding of the one or more audio objects (103, 303) and the residual signal (102, 302) to determine joint object coding parameters for enabling upmixing of the SR downmix signal to one or more reconstructed audio objects corresponding to the one or more audio objects (103, 303) and to a reconstructed residual signal corresponding to the residual signal; and - generating a bitstream based on the SR downmix signal and the joint object coding parameters, wherein the method comprises inserting SR metadata indicative of a format and/or of a number of channels of the SR input signal (101, 301) into the bitstream. - extracting one or more audio objects (103, 303) from the SR input signal (101, 301); wherein an audio object (103, 303) comprises an object signal and object metadata indicating a position of the audio object (103, 303); - determining a residual signal (102, 302) based on the SR input signal (101, 301) and based on the one or more audio objects (103, 303); - downmixing the SR input signal to a SR downmix signal (101, 304); - performing joint object coding of the one or more audio objects (103, 303) and the residual signal (102, 302) to determine joint object coding parameters for enabling upmixing of the SR downmix signal to one or more reconstructed audio objects corresponding to the one or more audio objects (103, 303) and to a reconstructed residual signal corresponding to the residual signal; and - generating a bitstream based on the SR downmix signal and the joint object coding parameters,
A compound of formula (IIA-1a) or a pharmaceutically acceptable salt thereof: wherein R 1 represents C 1-4 alkyl; R 2 represents halogen; R 3 represents hydrogen; R 4 represents hydrogen; R 13 represents methyl, dimethylamino, pyrrolidinyl or morpholinyl; R 15 represents hydrogen, halogen or trifluoromethyl; and R 16 represents hydrogen or halogen. R 1 represents C 1-4 alkyl; R 2 represents halogen; R 3 represents hydrogen; R 4 represents hydrogen; R 13 represents methyl, dimethylamino, pyrrolidinyl or morpholinyl; R 15 represents hydrogen, halogen or trifluoromethyl; and R 16 represents hydrogen or halogen.
A two piece primer insert for ammunition comprising: a first primer insert portion comprising: a cylindrical insert coupling element having an insert tip at one end opposite a cylindrical first primer insert portion joining region, and an insert transition located between the insert tip and the cylindrical first primer insert portion joining region; a second primer insert portion comprising: an inner surface connected to an extraction flange by a cylindrical second primer insert portion joining region, a primer recess located within the cylindrical second primer insert portion joining region, a primer flash aperture through the inner surface into the primer recess, and a flash aperture groove around the primer flash aperture in the primer recess; and an insert joint located between the first primer insert portion and the second primer insert portion, wherein the cylindrical first primer insert portion joining region is adjacent to the cylindrical second primer insert portion joining region to form a two piece primer insert; characterized in that a support structure is positioned about the cylindrical insert coupling element. a first primer insert portion comprising: a cylindrical insert coupling element having an insert tip at one end opposite a cylindrical first primer insert portion joining region, and an insert transition located between the insert tip and the cylindrical first primer insert portion joining region; a second primer insert portion comprising: an inner surface connected to an extraction flange by a cylindrical second primer insert portion joining region, a primer recess located within the cylindrical second primer insert portion joining region, a primer flash aperture through the inner surface into the primer recess, and a flash aperture groove around the primer flash aperture in the primer recess; and an insert joint located between the first primer insert portion and the second primer insert portion, wherein the cylindrical first primer insert portion joining region is adjacent to the cylindrical second primer insert portion joining region to form a two piece primer insert; characterized in that a support structure is positioned about the cylindrical insert coupling element.
Method for communication between a client (UA-C) and a server (UA-S1, UA-S2, UA-S3) of a client/server system using the OPC-UA communication protocol, OPC-UA calls (Write01, Write02) being used for the interaction of the client (UA-C) with the server, wherein after opening a session (CreateSession), at least one OPC-UA call (Write01) is received and stored by the server and the execution of the OPC-UA call (Write01) is initially simulated at the server and the result of the simulation is initially transmitted to the client as response (SimResult01) and the communication session is ended by the appropriate OPC-UA call for closing a session (CloseSession), wherein after termination of the session, the OPC-UA call(s) (Write01, Write02) stored on the server are executed (EXE_01, EXE_02).