mhurhangee/ep-ind-claims huggingface dataset:
A method for transaction processing that allows responsibility for committing a transaction between a client and a plurality of participating servers to be delegated to a commit server, the method comprising the steps of: receiving from a client a transaction that includes at least one participating server, wherein the client during an active phase of the transaction adds another server to participate in the transaction; determining, from a plurality of servers, a commit server, said commit server being a transaction coordinator responsible for coordinating said transaction when the transaction is committed; during the active phase, the client managing the transaction and passing information on which servers are participating in the transaction to the transaction coordinator; receiving at the transaction coordinator a commit request from the client, thereby delegating responsibility for committing the transaction to the commit server, such that the commit server moves the transaction through the commit phase on the participating servers to commit said transaction at the participating servers without the client taking any further part in the commit process; and communicating by the commit server the result of said committing to said client. receiving from a client a transaction that includes at least one participating server, wherein the client during an active phase of the transaction adds another server to participate in the transaction; determining, from a plurality of servers, a commit server, said commit server being a transaction coordinator responsible for coordinating said transaction when the transaction is committed; during the active phase, the client managing the transaction and passing information on which servers are participating in the transaction to the transaction coordinator; receiving at the transaction coordinator a commit request from the client, thereby delegating responsibility for committing the transaction to the commit server, such that the commit server moves the transaction through the commit phase on the participating servers to commit said transaction at the participating servers without the client taking any further part in the commit process; and communicating by the commit server the result of said committing to said client.
A digital memory imaging system for imaging the digital memory of a target computer comprising: a plurality of removable data storage devices (3, 5, 7, 9, 11, 13) each receivable to be connectable to the target computer; an imaging means configured to image the digital memory of the target computer; an output means to output the imaged digital memory as a series of data blocks to two or more of the removable data storage devices (3, 5, 7, 9, 11, 13); and an assignment means configured to assign each data block of imaged digital memory to a selected removable data storage device (3, 5, 7, 9, 11, 13) according to a queuing system, wherein each removable data storage device (3, 5, 7, 9, 11, 13) has a queue of data to be stored that is constantly monitored, wherein each data block is assigned to the removable data storage device having the least amount of data to store in its queue. a plurality of removable data storage devices (3, 5, 7, 9, 11, 13) each receivable to be connectable to the target computer; an imaging means configured to image the digital memory of the target computer; an output means to output the imaged digital memory as a series of data blocks to two or more of the removable data storage devices (3, 5, 7, 9, 11, 13); and an assignment means configured to assign each data block of imaged digital memory to a selected removable data storage device (3, 5, 7, 9, 11, 13) according to a queuing system, wherein each removable data storage device (3, 5, 7, 9, 11, 13) has a queue of data to be stored that is constantly monitored, wherein each data block is assigned to the removable data storage device having the least amount of data to store in its queue.
A device for mixing and dispensing at least two flowable components which are adapted to be mixed to form a dental material, the device comprising: - a housing forming a housing front face therein, - the housing having in the housing front face an outlet for the components; and - a piston having an piston front face and being arranged within the housing such that the piston front face and the housing front face are facing each other; - the device being adapted such that the piston is movable within the housing for positioning the piston front face and the housing front face toward each other; - wherein the piston front face and the housing front face are adapted to form a channel for the components between each other at least in contact of the piston front face and the housing front face; - wherein the device is adapted to compress the channel upon urging the piston front face and the housing front face against each other and thereby to displace the components to flow toward the outlet; and - characterized in that the channel is formed by a laterally deformable tube arranged at the piston front face. - a housing forming a housing front face therein, - the housing having in the housing front face an outlet for the components; and - a piston having an piston front face and being arranged within the housing such that the piston front face and the housing front face are facing each other; - the device being adapted such that the piston is movable within the housing for positioning the piston front face and the housing front face toward each other; - wherein the piston front face and the housing front face are adapted to form a channel for the components between each other at least in contact of the piston front face and the housing front face; - wherein the device is adapted to compress the channel upon urging the piston front face and the housing front face against each other and thereby to displace the components to flow toward the outlet; and - characterized in that the channel is formed by a laterally deformable tube arranged at the piston front face.
A method for carrying out site-directed modification of a target DNA, the method comprising contacting the target DNA with: a) a complex comprising a Cas9 polypeptide and a guide RNA, wherein the guide RNA comprises a first segment comprising a nucleotide sequence that is complementary to a sequence in the target DNA and a second segment that binds to the Cas9 polypeptide; and b) a Rad51 polypeptide, wherein the Rad51 polypeptide enhances binding of the first segment to the target DNA, wherein the method is carried out in a living cell in vitro or in a cell-free system in vitro. a) a complex comprising a Cas9 polypeptide and a guide RNA, wherein the guide RNA comprises a first segment comprising a nucleotide sequence that is complementary to a sequence in the target DNA and a second segment that binds to the Cas9 polypeptide; and b) a Rad51 polypeptide, wherein the Rad51 polypeptide enhances binding of the first segment to the target DNA, wherein the method is carried out in a living cell in vitro or in a cell-free system in vitro.
A vehicle comprising: a power storage device, a conversion device connected to said power storage device via a positive line (PLb) and a negative line (NLb) to convert DC current from said power storage device into AC current, a first motor connected to said conversion device via a first plurality of power lines (L1u, L1v, L1w), and driven by the AC current converted at said conversion device, a second motor connected to said conversion device via a second plurality of power lines (L2u, L2v, L2w), and driven by the AC current converted at said conversion device, an engine coupled to said first and second motors (20,30) via a planetary gear device, and an electrically heated catalyst device for purifying exhaust from said engine, said catalyst device having one end connected to a first branch line (PLehc, PLehc1) branching off from any one of said first plurality of power lines (L1u,L1v,L1w), and heated by current supplied via the first branch line (PLehc,PLehc1). a power storage device, a conversion device connected to said power storage device via a positive line (PLb) and a negative line (NLb) to convert DC current from said power storage device into AC current, a first motor connected to said conversion device via a first plurality of power lines (L1u, L1v, L1w), and driven by the AC current converted at said conversion device, a second motor connected to said conversion device via a second plurality of power lines (L2u, L2v, L2w), and driven by the AC current converted at said conversion device, an engine coupled to said first and second motors (20,30) via a planetary gear device, and an electrically heated catalyst device for purifying exhaust from said engine, said catalyst device having one end connected to a first branch line (PLehc, PLehc1) branching off from any one of said first plurality of power lines (L1u,L1v,L1w), and heated by current supplied via the first branch line (PLehc,PLehc1).
A pharmaceutical composition comprising one or more of the following isolated amino acid sequences SEQ ID No.: 3, and/or SEQ ID No.: 1, and/or SEQ ID No.: 2, or a derivative thereof, wherein said derivative thereof comprises one or several modifications of said amino acid sequence selected from the group consisting of N-acylation and/or C-amidation or C-esterification, N-alkylation, replacement of one or more L-amino acids by D-amino acids, conjugation with a biomolecule such as polyethylene glycol or albumin, and capping of the N- or C-terminus with Cys residues.
A composition comprising a supply quantum of cultured genetically normal myoblasts supplying a complete genome of the host species for use in treating and/or preventing a genetic disease in a host, characterized in that it comprises the myoblasts in host serum.
Process for the recovery of fluorine-containing inhalation anaesthetics, wherein in a desorption step an adsorbent comprising fluorine-containing inhalation anaesthetics is flowed through by water vapour, resulting in a secondary volume flow comprising fluorine-containing inhalation anaesthetics, and wherein the secondary volume flow is converted by cooling into a condensate containing fluorine-containing inhalation anaesthetics and water, from which the fluorine-containing inhalation anaesthetics are separated, characterised in that in a sterilisation step preceding the desorption step, the adsorbent comprising adsorbed fluorine-containing inhalation anaesthetics is brought into contact with water vapour - for 10 to 60 min, - at a temperature from 121 to 150°C, and - at a pressure of from 0.15 MPa to 0.4 MPa, in particular from 0.15 to 0.3 MPa, - wherein the sterilisation step and the desorption step are carried out in direct sequence in the same installation, - wherein the sterilisation step and the desorption step are carried out in a desorption vessel, - and wherein the desorption vessel comprises a steam inlet and a steam outlet, and the adsorbent is positioned between the steam inlet and the steam outlet in the desorption vessel such that steam entering the desorption vessel through the steam inlet must pass through the adsorbent before leaving the desorption vessel through the steam outlet, - and wherein the desorption vessel comprises a valve connected downstream of the steam outlet, the valve being closed during the sterilisation step and open during the desorption step, - and wherein the temperature prevailing in the desorption vessel is measured by a temperature sensor, and wherein the temperature sensor is located below an adsorbent container placed in the desorption vessel, and wherein the adsorbent comprising the adsorbed fluorine-containing inhalation anaesthetics has been obtained by filtering breathing air from the treatment of patients. - for 10 to 60 min, - at a temperature from 121 to 150°C, and - at a pressure of from 0.15 MPa to 0.4 MPa, in particular from 0.15 to 0.3 MPa, - wherein the sterilisation step and the desorption step are carried out in direct sequence in the same installation, - wherein the sterilisation step and the desorption step are carried out in a desorption vessel, - and wherein the desorption vessel comprises a steam inlet and a steam outlet, and the adsorbent is positioned between the steam inlet and the steam outlet in the desorption vessel such that steam entering the desorption vessel through the steam inlet must pass through the adsorbent before leaving the desorption vessel through the steam outlet, - and wherein the desorption vessel comprises a valve connected downstream of the steam outlet, the valve being closed during the sterilisation step and open during the desorption step, - and wherein the temperature prevailing in the desorption vessel is measured by a temperature sensor, and wherein the temperature sensor is located below an adsorbent container placed in the desorption vessel, and
Fully automatic coffee machine having a water tank, a pump, a brewing unit, a feed line to the brewing unit, a drainage line from the brewing unit, a coffee outlet and an extra element, which, in place of the brewing unit, forms a fluidic connection between the feed line to the brewing unit and the drainage line from the brewing unit, characterised by coupling means on the extra element, so that when the brewing unit is removed, said extra element can be coupled to the feed line and to the drainage line.
A timepiece movement comprising: a stepping motor having a rotor for rotating an indicating hand; and a train wheel group having wheel gears rotating based on rotation of the rotor, wherein the train wheel group includes a first wheel gear, a second wheel gear, a third wheel gear having a first reference load unit disposed to mesh with the first wheel gear so that a load received by the rotor fluctuates in a case where the first reference load unit meshes with the first wheel gear, and rotating at a first reduction ratio with respect to the rotor, and a fourth wheel gear having a second reference load unit disposed to mesh with the second wheel gear so that the load received by the rotor fluctuates in a case where the second reference load unit meshes with the second wheel gear, and rotating at a second reduction ratio lower than the first reduction ratio with respect to the rotor. a stepping motor having a rotor for rotating an indicating hand; and a train wheel group having wheel gears rotating based on rotation of the rotor, wherein the train wheel group includes a first wheel gear, a second wheel gear, a third wheel gear having a first reference load unit disposed to mesh with the first wheel gear so that a load received by the rotor fluctuates in a case where the first reference load unit meshes with the first wheel gear, and rotating at a first reduction ratio with respect to the rotor, and a fourth wheel gear having a second reference load unit disposed to mesh with the second wheel gear so that the load received by the rotor fluctuates in a case where the second reference load unit meshes with the second wheel gear, and rotating at a second reduction ratio lower than the first reduction ratio with respect to the rotor. a first wheel gear, a second wheel gear, a third wheel gear having a first reference load unit disposed to mesh with the first wheel gear so that a load received by the rotor fluctuates in a case where the first reference load unit meshes with the first wheel gear, and rotating at a first reduction ratio with respect to the rotor, and a fourth wheel gear having a second reference load unit disposed to mesh with the second wheel gear so that the load received by the rotor fluctuates in a case where the second reference load unit meshes with the second wheel gear, and rotating at a second reduction ratio lower than the first reduction ratio with respect to the rotor.
A nucleic acid molecule comprising: (a) a first nucleic acid sequence encoding a signal peptide, linked at its C-terminus to (b) a second nucleic acid sequence encoding a biotin mimetic peptide, linked at its C-terminus to (c) a third nucleic acid sequence encoding a polypeptide stretch that allows the anchorage of the BMP to a cell membrane, wherein the BMP has the amino acid sequence of SEQ ID NO: 5. (a) a first nucleic acid sequence encoding a signal peptide, linked at its C-terminus to (b) a second nucleic acid sequence encoding a biotin mimetic peptide, linked at its C-terminus to (c) a third nucleic acid sequence encoding a polypeptide stretch that allows the anchorage of the BMP to a cell membrane,
A method for load scheduling in a wideband code division multiple access communication system utilizing GRake equalizing radio reception, comprising the steps of: estimating channel estimates of present received uplink digital radio signals for a plurality of users; establishing combining weights for a GRake equalizing reception for said present received uplink digital radio signals; predicting function parameters of a predicted future load measure function, said predicted future load measure function being a function of individual grants of said plurality of users; said step of predicting function parameters being based on at least said estimated channel estimates and said established combing weights, taking sensitivity for interference suppression provided by said GRake equalizing for each of said plurality of users into account, and adapting said predicted function parameters for changed load equilibrium levels caused by said individual grants of said plurality users; selecting a set of grants for the users giving a required set of user future loads for said predicted future load measure function defined by said predicted function parameters; and scheduling uplink load according to said selected set of grants. estimating channel estimates of present received uplink digital radio signals for a plurality of users; establishing combining weights for a GRake equalizing reception for said present received uplink digital radio signals; predicting function parameters of a predicted future load measure function, said predicted future load measure function being a function of individual grants of said plurality of users; said step of predicting function parameters being based on at least said estimated channel estimates and said established combing weights, taking sensitivity for interference suppression provided by said GRake equalizing for each of said plurality of users into account, and adapting said predicted function parameters for changed load equilibrium levels caused by said individual grants of said plurality users; selecting a set of grants for the users giving a required set of user future loads for said predicted future load measure function defined by said predicted function parameters; and scheduling uplink load according to said selected set of grants.
A method implemented in a wireless communication device for estimating a frequency offset between a carrier frequency of a received signal and a frequency of a local oscillator, the method comprising: determining a plurality of phase change candidates for a phase change between a data symbol and a first reference symbol in the signal; generating a collection of constellation symbols from the data symbol; rotating the collection of constellation symbols by the plurality of phase change candidates; selecting one of the phase change candidates corresponding to one of the rotated collections of constellation symbols, in such a manner that said one of the rotated collections of constellation symbols matches a set of constellation points best; and determining the frequency offset based on the selected phase change candidate, wherein the signal is an OFDM signal and the data and reference symbols are OFDM data and reference symbols, and wherein the constellation points are noise free points in a constellation which is used at the transmission side to map a predetermined number of information bits to one of the constellation points and the constellation symbols are noisy points in the constellation obtained by demodulating the OFDM data symbol. determining a plurality of phase change candidates for a phase change between a data symbol and a first reference symbol in the signal; generating a collection of constellation symbols from the data symbol; rotating the collection of constellation symbols by the plurality of phase change candidates; selecting one of the phase change candidates corresponding to one of the rotated collections of constellation symbols, in such a manner that said one of the rotated collections of constellation symbols matches a set of constellation points best; and determining the frequency offset based on the selected phase change candidate, wherein the signal is an OFDM signal and the data and reference symbols are OFDM data and reference symbols, and wherein the constellation points are noise free points in a constellation which is used at the transmission side to map a predetermined number of information bits to one of the constellation points and the constellation symbols are noisy points in the constellation obtained by demodulating the OFDM data symbol.
Tubular spring, in particular as a coil spring, torsion-rod spring, and/or stabilizer for motor vehicles, comprising at least one metal tube element having a tube internal cross section, a tube internal diameter, a tube external diameter, a tube internal wall, and a tube wall thickness, wherein at least one metal foam is disposed in the tube internal cross section of the at least one metal tube element of the tubular spring in at least one part-region, and the at least one metal tube element has an at least partially martensitic structure and wherein the at least one metal tube element and/or the at least one metal tube element that is foamed at least in a part-region are/is at least partially formed so as to be a tubular spring that is configured so as to not be fully rectilinear.
A cochlear implant, comprising: a cochlear lead including a plurality of electrodes; a housing (102, 102a) including a magnet pocket, a top wall above the magnet pocket, a bottom wall that does not include an opening below the magnet pocket, and a magnet aperture that extends through the top wall to the magnet pocket; a magnet, located within the magnet pocket, having a top surface adjacent to the magnet aperture that defines a top magnet outer perimeter (P MB) and a bottom surface adjacent to the bottom wall that defines a bottom magnet outer perimeter that is greater than the top magnet outer perimeter; an antenna within the housing and adjacent to the magnet pocket; and a stimulation processor within the housing operably connected to the antenna and to the cochlear lead. a cochlear lead including a plurality of electrodes; a housing (102, 102a) including a magnet pocket, a top wall above the magnet pocket, a bottom wall that does not include an opening below the magnet pocket, and a magnet aperture that extends through the top wall to the magnet pocket; a magnet, located within the magnet pocket, having a top surface adjacent to the magnet aperture that defines a top magnet outer perimeter (P MB) and a bottom surface adjacent to the bottom wall that defines a bottom magnet outer perimeter that is greater than the top magnet outer perimeter; an antenna within the housing and adjacent to the magnet pocket; and a stimulation processor within the housing operably connected to the antenna and to the cochlear lead.