mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: presenting a user interface (114, 303) indicating a plurality of templates each specifying at least a predefined arrangement of physical computing components for inclusion in compute units, wherein the physical computing components comprise one or more among central processing units, CPUs, graphics processing units, GPUs, storage devices, field-programmable gate arrays, FPGAs, and network interface modules each separately coupled to at least a communication fabric such that the physical computing components can be arbitrarily arranged into the compute units; receiving a user selection indicating a selected template among the plurality of templates to form a target compute unit; allocating to the target compute unit a set of physical computing components according to the selected template; and instructing a management entity to establish the target compute unit based on dynamically altering as-needed logical partitioning within at least the communication fabric communicatively coupling the set of physical computing components of the target compute unit. presenting a user interface (114, 303) indicating a plurality of templates each specifying at least a predefined arrangement of physical computing components for inclusion in compute units, wherein the physical computing components comprise one or more among central processing units, CPUs, graphics processing units, GPUs, storage devices, field-programmable gate arrays, FPGAs, and network interface modules each separately coupled to at least a communication fabric such that the physical computing components can be arbitrarily arranged into the compute units; receiving a user selection indicating a selected template among the plurality of templates to form a target compute unit; allocating to the target compute unit a set of physical computing components according to the selected template; and instructing a management entity to establish the target compute unit based on dynamically altering as-needed logical partitioning within at least the communication fabric communicatively coupling the set of physical computing components of the target compute unit.
Method for generating a set of protecting connections (P1, P2, P3) in an optical network in order to insure protection of a set of working connections (C1, C2, C3), said protecting connections (P1, P2, P3) having a path different from the working connections (C1, C2, C3) wherein: - the working connections (C1, C2, C3) of the set have partially or totally disjoint paths, - the protecting connections(P1, P2, P3) are transmitted on the same wavelength channel, - the signals of at least two protecting connections (P1, P2, P3) having at least a partial common path are merged transparently into a combined signal (PC1, PC2) and are transmitted on a common wavelength channel along said at least partial common path. - the working connections (C1, C2, C3) of the set have partially or totally disjoint paths, - the protecting connections(P1, P2, P3) are transmitted on the same wavelength channel, - the signals of at least two protecting connections (P1, P2, P3) having at least a partial common path are merged transparently into a combined signal (PC1, PC2) and are transmitted on a common wavelength channel along said at least partial common path.
A driving belt, comprising: a plurality of plate elements (E, 1 a, 1 b) juxtaposed in its thickness direction; and a flat ring (2, 3), which fastens the elements (E, 1 a, 1 b) in a circular manner; wherein the plurality of elements (E, 1 a, 1 b) includes at least one adjuster element (1 b), which is configured to adjust an endplay as a total of clearances between the adjacent elements (E, 1a, 1b) in the elements (E, 1a, 1b) fastened by the ring (2, 3) in a circular manner; and the adjuster element (E, 1 b) comprises an insertion groove (19; 22, 23, 24, 25, 28, 29, 30, 37, 38, 39) opening toward the endplay, and an inserting member (18, 20, 21, 26, 27, 31, 32, 33, 34, 35, 36) which is inserted into the insertion groove (19, 22, 23, 24, 25, 28, 29, 30, 37, 38, 39) and configured to protrude partially from the insertion groove (19, 22, 23, 24, 25, 28, 29, 30, 37, 38, 39) thereby adjusting the endplay, characterized in that: the insertion groove (19, 22, 23, 24, 25, 28, 29, 30, 37, 38, 39) extends up to a lateral end face (4, 5) of the adjuster element (E, 1b) to allow the inserting member (18, 20, 21, 26, 27, 31, 32, 33, 34, 35, 36) to be inserted into the insertion groove (19, 22, 23, 24, 25, 28, 29, 30, 37, 38, 39) laterally from the end face (4, 5). a plurality of plate elements (E, 1 a, 1 b) juxtaposed in its thickness direction; and a flat ring (2, 3), which fastens the elements (E, 1 a, 1 b) in a circular manner; wherein the plurality of elements (E, 1 a, 1 b) includes at least one adjuster element (1 b), which is configured to adjust an endplay as a total of clearances between the adjacent elements (E, 1a, 1b) in the elements (E, 1a, 1b) fastened by the ring (2, 3) in a circular manner; and the adjuster element (E, 1 b) comprises an insertion groove (19; 22, 23, 24, 25, 28, 29, 30, 37, 38, 39) opening toward the endplay, and an inserting member (18, 20, 21, 26, 27, 31, 32, 33, 34, 35, 36) which is inserted into the insertion groove (19, 22, 23, 24, 25, 28, 29, 30, 37, 38, 39) and configured to protrude partially from the insertion groove (19, 22, 23, 24, 25, 28, 29, 30, 37, 38, 39) thereby adjusting the endplay, the insertion groove (19, 22, 23, 24, 25, 28, 29, 30, 37, 38, 39) extends up to a lateral end face (4, 5) of the adjuster element (E, 1b) to allow the inserting member (18, 20, 21, 26, 27, 31, 32, 33, 34, 35, 36) to be inserted into the insertion groove (19, 22, 23, 24, 25, 28, 29, 30, 37, 38, 39) laterally from the end face (4, 5).
Method for recharging a pool of batteries from a recharging device comprising several recharging terminals supplied electrically from at least one intermittent energy production source, such as sources of photovoltaic or wind energy, by an electrical link, characterized in that it comprises the following steps: a. Estimation of the future production of energy, i.e. the predicted energy E predicted and the predicted power P predicted (t) as a function of time t, in the course of a reference period by said at least one intermittent energy production source; b. Estimation of the energy need ∑ i E i (t) for the recharging of the batteries present in the recharging device, which corresponds to the sum of the energy need E i (t) of each battery i present in the pool at an instant t; c. Computation of a dummy power P dummy which is less than or equal to the predicted power and able to address all or part of this energy need in a dummy period which may or may not be distinct from the reference period, corresponding to a dummy energy E dummy (t) defined at an instant t by the formula: E dummy (t) = r ∑ i E i (t) with 0 < r < 2, the ratio r being defined from the predicted energy E predicted and from the forecast energy E carpark of energy consumption of the recharging device over the dummy period by the formula: Epredicted Ecarpark d. Scheduling of the rechargings of the batteries present in the recharging device over this dummy period. a. Estimation of the future production of energy, i.e. the predicted energy E predicted and the predicted power P predicted (t) as a function of time t, in the course of a reference period by said at least one intermittent energy production source; b. Estimation of the energy need ∑ i E i (t) for the recharging of the batteries present in the recharging device, which corresponds to the sum of the energy need E i (t) of each battery i present in the pool at an instant t; c. Computation of a dummy power P dummy which is less than or equal to the predicted power and able to address all or part of this energy need in a dummy period which may or may not be distinct from the reference period, corresponding to a dummy energy E dummy (t) defined at an instant t by the formula: E dummy (t) = r ∑ i E i (t) with 0 < r < 2, the ratio r being defined from the predicted energy E predicted and from the forecast energy E carpark of energy consumption of the recharging device over the dummy period by the formula: Epredicted Ecarpark d. Scheduling of the rechargings of the batteries present in the recharging device over this dummy period.
A fiber optic gyroscope assembly (12, 50, 100) comprising: a spool (14, 52, 102) comprising a flange (18, 56, 104) corresponding to a flattened portion comprising an axial center corresponding to a sensitive axis (67, 116) about which an associated FOG system (12, 50, 100) is configured to measure rotation; a magnetic shield (64, 112) arranged as a capped concentric cover about the sensitive axis (67, 116) and coupled to the flange (18, 56, 104) to create a toroidal cavity (62, 110) between the magnetic shield (64, 112) and the flange (18, 56, 104); and a fiber coil (20, 58, 106) disposed within the toroidal cavity (62, 110) and coupled to the flange (18, 56, 104), the fiber coil (20, 58, 106) comprising an optical fiber which is counter-wound in a first orientation and a second orientation opposite the first orientation, characterized in that the fiber coil (20, 58, 106) has an axial dimension along the sensitive axis (67, 116) that is less than or equal to approximately 160% of a radial width corresponding to a difference between an outer radius and an inner radius of the fiber coil (20, 58, 106). a spool (14, 52, 102) comprising a flange (18, 56, 104) corresponding to a flattened portion comprising an axial center corresponding to a sensitive axis (67, 116) about which an associated FOG system (12, 50, 100) is configured to measure rotation; a magnetic shield (64, 112) arranged as a capped concentric cover about the sensitive axis (67, 116) and coupled to the flange (18, 56, 104) to create a toroidal cavity (62, 110) between the magnetic shield (64, 112) and the flange (18, 56, 104); and a fiber coil (20, 58, 106) disposed within the toroidal cavity (62, 110) and coupled to the flange (18, 56, 104), the fiber coil (20, 58, 106) comprising an optical fiber which is counter-wound in a first orientation and a second orientation opposite the first orientation, characterized in that the fiber coil (20, 58, 106) has an axial dimension along the sensitive axis (67, 116) that is less than or equal to approximately 160% of a radial width corresponding to a difference between an outer radius and an inner radius of the fiber coil (20, 58, 106).
Shoe, in particular a sports shoe, having an upper and a sole connected to said upper, wherein at least some areas of the sole consist of a number of hollow bodies embedded in a carrier material, wherein said carrier material consists of a foamed plastic material, characterized in that the material of the hollow bodies is expanded thermoplastic polyurethane (E-TPU).
An actuator for a printhead comprising: an actuating element having a first end and a second end; a first mounting and a second mounting, configured for allowing the actuating element to be positioned on a reference plane; the first mounting is operable to allow the actuating element to move in a first direction substantially parallel to the reference plane and to allow a portion of the first end of the actuating element to rotate about a first axis of rotation substantially perpendicular to the first direction and parallel to the reference plane; the second mounting is configured to allow a portion of a second end of the actuating element to rotate about a second axis of rotation perpendicular to the first direction and parallel to the first axis of rotation; the second mounting comprises a stop surface, operable to allow the actuating element to be positioned along said first direction substantially parallel to the reference plane with the second end in contact with the stop surface, characterized in that the first mounting comprises a roller having a central axis, operable to rotate about the first axis of rotation, and in that the first mounting comprises an elastic element configured to exert a force on the actuating element which presses it into contact with the roller.
Teladorsagia circumcincta antigen calcium-dependent apyrase-1 (Tci-APY-1) or an immunogenic fragment thereof, for use in raising an immune response in an animal.
An autoinjector for receiving in use a syringe containing a dose of medicament, said syringe comprising a syringe body of generally cylindrical form, a needle at the forward end of the syringe body, and a piston slideably mounted in said syringe body for expressing a dose, said autoinjector comprising: a housing for receiving in use said syringe for sliding movement between a retracted position and an extended, injection position in which said needle projects from said housing; a drive mechanism for being released from an energised condition to drive the syringe forwards to the injection position and to expel a dose; wherein said drive mechanism includes: a plunger adapted to drive said piston in use; an intermediate drive member; a first compression drive spring disposed between said intermediate drive member and said housing or a part associated therewith to urge said intermediate drive member forwardly, and a second compression spring acting between said intermediate drive member and said plunger to urge said plunger forwardly, characterised in that the autoinjector is such that immediately on release of said drive mechanism said intermediate drive member and said plunger are freed for relative movement. a housing for receiving in use said syringe for sliding movement between a retracted position and an extended, injection position in which said needle projects from said housing; a drive mechanism for being released from an energised condition to drive the syringe forwards to the injection position and to expel a dose; a plunger adapted to drive said piston in use; an intermediate drive member; a first compression drive spring disposed between said intermediate drive member and said housing or a part associated therewith to urge said intermediate drive member forwardly, and a second compression spring acting between said intermediate drive member and said plunger to urge said plunger forwardly,
A method for producing a monoalkylated aromatic product, the method comprising: (a) contacting benzene and an alkylating agent with an alkylation catalyst in a first alkylation reaction zone under alkylation conditions to produce a first alkylation effluent comprising the monoalkylated aromatic product, polyalkylated aromatic product, unreacted benzene and C 5, C 6 and/or C 7 non-aromatic compounds; (b) removing a purge stream containing C 5, C 6 and/or C 7 non-aromatic compounds and unreacted benzene from the first alkylation effluent; (c) contacting at least part of the purge stream with an alkylating agent in a second alkylation reaction zone in the presence of an alkylation catalyst under alkylation conditions to produce a second alkylation effluent comprising monoalkylated aromatic product, polyalkylated aromatic product and C 5, C 6 and/or C 7 non-aromatic compounds; (d) recovering the monoalkylated aromatic product from the first and second alkylation effluents; and (e) purging at least part of the C 5, C 6 and/or C 7 non-aromatic compounds in the second alkylation effluent. (a) contacting benzene and an alkylating agent with an alkylation catalyst in a first alkylation reaction zone under alkylation conditions to produce a first alkylation effluent comprising the monoalkylated aromatic product, polyalkylated aromatic product, unreacted benzene and C 5, C 6 and/or C 7 non-aromatic compounds; (b) removing a purge stream containing C 5, C 6 and/or C 7 non-aromatic compounds and unreacted benzene from the first alkylation effluent; (c) contacting at least part of the purge stream with an alkylating agent in a second alkylation reaction zone in the presence of an alkylation catalyst under alkylation conditions to produce a second alkylation effluent comprising monoalkylated aromatic product, polyalkylated aromatic product and C 5, C 6 and/or C 7 non-aromatic compounds; (d) recovering the monoalkylated aromatic product from the first and second alkylation effluents; and (e) purging at least part of the C 5, C 6 and/or C 7 non-aromatic compounds in the second alkylation effluent.
A method for combining IP fragmentation evasion techniques, the method comprising: in a packet network test device: defining a plurality of IP fragmentation evasion techniques; generating an IP packet; fragmenting the IP packet to produce a first set of IP packet fragments; applying each of the plurality of IP fragmentation evasion techniques to the first set of IP packet fragments to produce a second set of IP packet fragments; and transmitting the second set of IP packet fragments to the device under test. in a packet network test device: defining a plurality of IP fragmentation evasion techniques; generating an IP packet; fragmenting the IP packet to produce a first set of IP packet fragments; applying each of the plurality of IP fragmentation evasion techniques to the first set of IP packet fragments to produce a second set of IP packet fragments; and transmitting the second set of IP packet fragments to the device under test. defining a plurality of IP fragmentation evasion techniques; generating an IP packet; fragmenting the IP packet to produce a first set of IP packet fragments; applying each of the plurality of IP fragmentation evasion techniques to the first set of IP packet fragments to produce a second set of IP packet fragments; and transmitting the second set of IP packet fragments to the device under test.
A method for checking the integrity of the estimation of the position of a mobile carrier, said position being established by a satellite positioning measurement system, said estimation being obtained by methods called "real-time kinematic" methods, said methods being based on the carrier phase measurements of the signals, called "GNSS" signals, originating from the satellites, said method verifying that a carrier phase measurement is consistent with a code pseudo-distance measurement, characterised in that said method comprises: - a first step of computing the initial position and time of the carrier, said first step being performed on the basis of the estimated pseudo-distances on the line of sight of the satellites, on the basis of the received time measurements carried by the spreader codes of the signals transmitted by the satellites; - a second step of verifying the integrity of the resolution of the initial position and time performed on the basis of the satellite pseudo-distances computed on the basis of a standard algorithm for monitoring satellite breakdowns of the "RAIM" type; - a third step of computing the speed of the carrier, at a plurality of observation instants, said third step being performed on the basis of the apparent Doppler measurements estimated on the line of sight of the satellites, on the basis of the carrier phase measurements of the satellite signals; - a fourth step of verifying that, at each of said observation instants, the short-term evolution of the carrier phase of the signals received on each of the satellite lines of sight is consistent with the speed computed in the preceding step; - a sixth step (E6, E7) of verifying that, at each of said observation instants, the filtered position obtained on the basis of the pseudo-distance measurements long-term filtered by the carrier phase is dependable. - a first step of computing the initial position and time of the carrier, said first step being performed on the basis of the estimated pseudo-distances on the line of sight of the satellites, on the basis of the received time measurements carried by the spreader codes of the signals transmitted by the satellites; - a second step of verifying the integrity of the resolution of the initial position and time performed on the basis of the satellite pseudo-distances computed on the basis of a standard algorithm for monitoring satellite breakdowns of the "RAIM" type; - a third step of computing the speed of the carrier, at a plurality of observation instants, said third step being performed on the basis of the apparent Doppler measurements estimated on the line of sight of the satellites, on the basis of the carrier phase measurements of the satellite signals; - a fourth step of verifying that, at each of said observation instants, the short-term evolution of the carrier phase of the signals received on each of the satellite lines of sight is consistent with the speed computed in the preceding step; - a sixth step (E6, E7) of verifying that, at each of said observation instants, the filtered position obtained on the basis of the pseudo-distance measurements long-term filtered by the carrier phase is dependable.
An at least partially hydrogenated polystyrene resin comprising a homopolymer of styrenic moieties having not more than 5 weight percent of moieties other than styrenic moieties, said polystyrene resin having: (a) a Ring & Ball softening point of at least 85°C and not more than 110°C; (b) a z-average molecular weight (Mz) of not more than 2,300 dalton; and (c) a polydispersity index of not more than 1.7, said at least partially hydrogenated polystyrene resin having an aromatic hydrogen content of not more than 15 percent, as measured by proton NMR. (a) a Ring & Ball softening point of at least 85°C and not more than 110°C; (b) a z-average molecular weight (Mz) of not more than 2,300 dalton; and (c) a polydispersity index of not more than 1.7,
A computer-based method of virtually planning a dental prosthesis, said method comprising providing scan data of an anatomical situation of an oral cavity of a patient; creating an envelope guide in the oral cavity of a patient wherein the envelope guide rests against the mandibula or maxilla of the patient and is worked to comprise a patient specific buccal support surface for facial tissue; providing envelope data by digitizing said envelope guide, said envelope data comprising data of an envelope portion of said envelope guide, said envelope portion corresponding to said support surface for facial tissue, which support surface is desired to result when said dental prosthesis is installed in said oral cavity of said patient; virtually simulating an outer envelope of a desired dental prosthesis in said oral cavity based on said envelope data of said envelope portion; virtually adjusting said desired dental prosthesis relative to said simulated outer envelope, virtually positioning at least one dental implant for anchoring said dental prosthesis based on said virtually adjusted desired dental prosthesis; and generating production data for producing a dental prosthesis in the form of an implant supported pre-denture and a surgical drill template based on said virtually adjusted desired dental prosthesis and said at least one virtually positioned dental implant.
A sensor chip (100, 200, 300, 400, 600, 900) for parallelized magnetic sensing of a plurality of samples, the sensor chip comprising: an optically transparent substrate comprising a plurality of optically addressable solid-state spin systems arranged in a plurality of sensing regions in a surface layer (104-I) below a top surface of the substrate; a plurality of sample sites, wherein the sample sites and the sensing regions are arranged in a regular one-dimensional or two-dimensional pattern with each sample site being arranged above a respective sensing region; and a light guiding system configured to provide an optical path through the substrate connecting each of the sensing regions. an optically transparent substrate comprising a plurality of optically addressable solid-state spin systems arranged in a plurality of sensing regions in a surface layer (104-I) below a top surface of the substrate; a plurality of sample sites, wherein the sample sites and the sensing regions are arranged in a regular one-dimensional or two-dimensional pattern with each sample site being arranged above a respective sensing region; and a light guiding system configured to provide an optical path through the substrate connecting each of the sensing regions.