mhurhangee/patent-ind-claim-en huggingface dataset:
A fibre mixture consisting of beta-galactooligosaccharides, inulin, resistant starch, and soluble soy polysaccharides, wherein the weight ratio beta-galactooligosaccharides : inulin : resistant starch : soluble soy polysaccharides is about 38 : 38 : 4 : 20.
A control node (102; 302) for a mobile communication network , said control node (102; 302) comprising: a first means arranged to: receive International Mobile Subscriber Identity, IMSI, of at least some connections of currently set up connections, and a second means arranged to: allocate resources for the currently set up connections based on said IMSI, the control node (102; 302) characterized in that the second means is further arranged to: make handover decisions from a first cell to a second cell based on the IMSI, said handover decisions comprising: in response to a determination that home PLMN of the currently set up connections is not the same as home PLMN of the second cell, making a handover decision based on load sharing priorities of the second cell. a first means arranged to: receive International Mobile Subscriber Identity, IMSI, of at least some connections of currently set up connections, and a second means arranged to: allocate resources for the currently set up connections based on said IMSI, the control node (102; 302) characterized in that the second means is further arranged to: make handover decisions from a first cell to a second cell based on the IMSI, said handover decisions comprising: in response to a determination that home PLMN of the currently set up connections is not the same as home PLMN of the second cell, making a handover decision based on load sharing priorities of the second cell. allocate resources for the currently set up connections based on said IMSI, the control node (102; 302) characterized in that the second means is further arranged to: make handover decisions from a first cell to a second cell based on the IMSI, said handover decisions comprising: in response to a determination that home PLMN of the currently set up connections is not the same as home PLMN of the second cell, making a handover decision based on load sharing priorities of the second cell.
A glass sheet processing apparatus comprising: a first gantry assembly that extends across a glass sheet in a cross-machine direction, the first gantry assembly comprising a processing head that moves along a length of the first gantry assembly and comprising a laser comprising an optical arrangement positioned in a beam path of the laser providing a laser beam focal line that is formed on a beam output side of the optical arrangement; and a second gantry assembly that extends across the glass sheet in the cross-machine direction, the second gantry assembly comprising a processing head that moves along a length of the second gantry assembly. a first gantry assembly that extends across a glass sheet in a cross-machine direction, the first gantry assembly comprising a processing head that moves along a length of the first gantry assembly and comprising a laser comprising an optical arrangement positioned in a beam path of the laser providing a laser beam focal line that is formed on a beam output side of the optical arrangement; and a second gantry assembly that extends across the glass sheet in the cross-machine direction, the second gantry assembly comprising a processing head that moves along a length of the second gantry assembly.
Device for processing a confectionery mass, with a stock container for a storage of a basic confectionery mass , with a heating device , connected with the stock container , for heating and dissolving or boiling the components of the basic confectionery mass , with an evaporation space subsequent to the heating device , in which the heated basic confectionery mass is evaporated and cooled, with a negative pressure source , connected with the evaporation space , for sucking vapours from the evaporation space , and with an apparatus for condensing the vapours that is arranged in the flow path between the evaporation space and the negative pressure source , characterised in that, in the flow path between the evaporation space and the apparatus for condensing at least portions of the vapours, a heat exchanger is arranged which is configured for heating the basic confectionery mass coming out of the stock container before it enters the heating device .
A refractory metal core (RMC) finishing method, comprising: performing a plurality of finishing operations on a plurality of RMC samples ; analyzing one or more properties of at least a portion of the plurality of RMC samples ; and selecting a combination of finishing operations for generating an RMC having desirable properties for manufacturing a part free from defects, wherein the plurality of finishing operations include a first harperizing process performed for a first amount of time and a second harperizing process performed for a second, different amount of time. performing a plurality of finishing operations on a plurality of RMC samples ; analyzing one or more properties of at least a portion of the plurality of RMC samples ; and selecting a combination of finishing operations for generating an RMC having desirable properties for manufacturing a part free from defects, wherein the plurality of finishing operations include a first harperizing process performed for a first amount of time and a second harperizing process performed for a second, different amount of time.
Gas/gas mixer for introducing gas, especially air, into the exhaust gas stream of an internal combustion engine, comprising a mixer body that is elongated in the direction of a body longitudinal axis (L), wherein a volume of gas to be introduced is formed in the mixer body and a plurality of gas passage openings are provided in a wall of the mixer body , which wall encloses the volume of gas to be introduced , wherein the mixer body is configured with a flattened cross-sectional profile transversely to the body longitudinal axis (L), wherein a profile cross-sectional axis (P Q ) representing the area of maximum width of the cross-sectional profile is displaced in the direction of a profile longitudinal axis (P L ) representing the length of the cross-sectional profile between a leading edge of the mixer body and a trailing edge of the mixer body in relation to a longitudinal center (M) of the profile longitudinal axis (P L ) in the direction towards the leading edge of the mixer body , characterized in that a ratio of the distance between the profile cross-sectional axis (P Q ) and a longitudinal center (M) of the profile longitudinal axis (P L ) to the length of the profile longitudinal axis (P L ) is in the range of 0.02 to 0.05.
A hydrogenated diene polymer, having a branch number (Bn) measured by viscosity detector-equipped GPC-light scattering measurement of 1.5 or more, satisfying the following expression (S) assuming that component ratios (mol%) of a structural unit represented by the following formula , a structural unit represented by the following formula , a structural unit represented by the following formula , and a structural unit represented by the following formula are respectively a, b, c, and d, and having a hydrogenation rate of 40 to 85%, having a modification ratio of 70% by mass or more, and having content of the aromatic vinyl monomer unit of 0.1% by mass or less: 10 ≤ [(a + b)/(a + b + c + d)] × 100 ≤ 70 satisfying the following expression (S) assuming that component ratios (mol%) of a structural unit represented by the following formula , a structural unit represented by the following formula , a structural unit represented by the following formula , and a structural unit represented by the following formula are respectively a, b, c, and d, and having a hydrogenation rate of 40 to 85%, having a modification ratio of 70% by mass or more, and having content of the aromatic vinyl monomer unit of 0.1% by mass or less: 10 ≤ [(a + b)/(a + b + c + d)] × 100 ≤ 70
A robotic surgical system comprising: a robotic arm having a proximal end configured to be coupled to a support and having a driver at a distal end of the robotic arm, the driver including one or more motors ; a tool assembly comprising a housing configured to releasably couple to the driver, the housing including a first actuator and a second actuator that are each actuated by at least one of the one or more motors; a shaft extending distally from the housing and operatively coupled to the first actuator such that actuation of the first actuator causes the shaft to rotate; and an end effector pivotally coupled to a distal end of the shaft, the end effector being configured to pivot upon actuation of the second actuator to form an angle between a first longitudinal axis of the end effector and a second longitudinal axis of the shaft; a control system; characterized by the control system being configured to control, based on the angle formed from a current position of the end effector, a velocity of movement of the robotic arm, the velocity of movement being related to the angle. a robotic arm having a proximal end configured to be coupled to a support and having a driver at a distal end of the robotic arm, the driver including one or more motors ; a tool assembly comprising a housing configured to releasably couple to the driver, the housing including a first actuator and a second actuator that are each actuated by at least one of the one or more motors; a shaft extending distally from the housing and operatively coupled to the first actuator such that actuation of the first actuator causes the shaft to rotate; and an end effector pivotally coupled to a distal end of the shaft, the end effector being configured to pivot upon actuation of the second actuator to form an angle between a first longitudinal axis of the end effector and a second longitudinal axis of the shaft; a control system; characterized by the control system being configured to control, based on the angle formed from a current position of the end effector, a velocity of movement of the robotic arm, the velocity of movement being related to the angle. a housing configured to releasably couple to the driver, the housing including a first actuator and a second actuator that are each actuated by at least one of the one or more motors; a shaft extending distally from the housing and operatively coupled to the first actuator such that actuation of the first actuator causes the shaft to rotate; and an end effector pivotally coupled to a distal end of the shaft, the end effector being configured to pivot upon actuation of the second actuator to form an angle between a first longitudinal axis of the end effector and a second longitudinal axis of the shaft; a control system; characterized by the control system being configured to control, based on the angle formed from a current position of the end effector, a velocity of movement of the robotic arm, the velocity of movement being related to the angle.
A gas turbine combustor comprising: a primary combustion chamber ; a plurality of primary nozzles capable of delivering fuel to the primary combustion chamber ; a secondary combustion chamber downstream of the primary combustion chamber ; and, a secondary nozzle capable of delivering fuel to the secondary combustion chamber ; characterized in that the secondary nozzle having a plurality of individually controlled fuel circuits; wherein one or more of the individually controlled fuel circuits is in communication with a secondary nozzle peg and one or more of the individually controlled fuel circuits is in communication with a secondary nozzle pilot tip to individually vary fuel flow rates delivered to the secondary nozzle peg and the secondary nozzle pilot tip . a primary combustion chamber ; a plurality of primary nozzles capable of delivering fuel to the primary combustion chamber ; a secondary combustion chamber downstream of the primary combustion chamber ; and, a secondary nozzle capable of delivering fuel to the secondary combustion chamber ; characterized in that the secondary nozzle having a plurality of individually controlled fuel circuits; wherein one or more of the individually controlled fuel circuits is in communication with a secondary nozzle peg and one or more of the individually controlled fuel circuits is in communication with a secondary nozzle pilot tip to individually vary fuel flow rates delivered to the secondary nozzle peg and the secondary nozzle pilot tip .
A process for preparing a compound of formula II wherein R1 is CN, CONH2, or COOR2, wherein R2 is C1-4 alkyl, comprising reacting a compound of formula V wherein R1 is CN, CONH2 or COOR2, wherein R2 is C1-4 alkyl, with the compound of formula IV at a temperature above 80°C without any solvent or in the presence of an amount of solvent up to 50 wt% of the sum of the weights of compounds V and IV, and in the presence of a salt added to the reaction mixture, wherein the salt is a lithium, sodium, potassium, rubidium, caesium, magnesium, calcium, strontium, barium, scandium, manganese, iron, copper, zinc, silver, boron, aluminium, gallium, indium, cerium, europium, ytterbium or bismuth salt.
Winch device having a cantilever arm on which at least one deflection roller for a flexible traction means is arranged, wherein the cantilever arm is pivotable or rotatable about an axis , wherein the cantilever arm is supported or braced by a passive compensation system for heave compensation, characterized in that a distance between an articulation point of the compensation system on the cantilever arm and the axis is variable.
A method for recovering an aroma component from a biological ingredient, the method comprising the steps of: feeding steam to a container containing the biological ingredient to contact the steam with the biological ingredient; cooling the steam coming from the container containing the biological ingredient; and directing the cooled steam and a liquid generated by cooling to a liquid-containing container to recover the aroma component, and further comprising, before the step of feeding the steam to the container containing the biological ingredient, the step of immersing part or all of the biological ingredient in an alcohol or a hydrous alcohol, wherein the pressure inside the container is in the range of from 450 to 1013 hpa. feeding steam to a container containing the biological ingredient to contact the steam with the biological ingredient; cooling the steam coming from the container containing the biological ingredient; and directing the cooled steam and a liquid generated by cooling to a liquid-containing container to recover the aroma component, and further comprising, before the step of feeding the steam to the container containing the biological ingredient, the step of immersing part or all of the biological ingredient in an alcohol or a hydrous alcohol, wherein the pressure inside the container is in the range of from 450 to 1013 hpa.
Sealing arrangement for a cooking device such as an oven, steamer or microwave for sealing an opening in the cooking chamber wall , which serves to implement an illumination element serving to illuminate the cooking chamber, in particular a glass rod with a substantially circular cylindrical shape, characterised by having a housing part , which is sealed to the cooking chamber wall by a first seal and has a receiver for a second seal , which seals the housing part to the illumination element, having holding parts , which arrange the housing part on the cooking chamber wall , wherein the second seal is a graphite ring, the illumination element being able to be arranged inside the ring chamber thereof.
A method of labeling a single stranded target nucleic acid, the method comprising contacting a single stranded target nucleic acid having a first target site comprising a first sequence of nucleotides and a second target site comprising a second sequence of nucleotides, wherein the second target site is positioned on the target nucleic acid 5' of the first target site, with: (a) a quenched PAMmer, wherein the quenched PAMmer is a single stranded oligonucleotide comprising: (a.i) a protospacer adjacent motif (PAM) sequence, (a.ii) a detectable label, (a.iii) a quencher moiety that quenches the detectable label, and (a.iv) at least one of: a specificity segment, positioned 5' of the PAM sequence, that hybridizes with nucleotides of the first target site, and an orientation segment, positioned 3' of the PAM sequence, that hybridizes with nucleotides of the second target site; (b) a Cas9 protein; and (c) a Cas9 guide RNA that forms a complex with the Cas9 protein and hybridizes with the first target site, whereby the Cas9 protein cleaves the quenched PAMmer at a cleavage site positioned between the detectable label and the quencher moiety to produce: (i) a first cleavage product that is hybridized with the target nucleic acid and comprises the detectable label; and (ii) a second cleavage product that is not hybridized with the target nucleic acid and comprises the quencher moiety. (a) a quenched PAMmer, wherein the quenched PAMmer is a single stranded oligonucleotide comprising: (a.i) a protospacer adjacent motif (PAM) sequence, (a.ii) a detectable label, (a.iii) a quencher moiety that quenches the detectable label, and (a.iv) at least one of: a specificity segment, positioned 5' of the PAM sequence, that hybridizes with nucleotides of the first target site, and an orientation segment, positioned 3' of the PAM sequence, that hybridizes with nucleotides of the second target site; (a.i) a protospacer adjacent motif (PAM) sequence, (a.ii) a detectable label, (a.iii) a quencher moiety that quenches the detectable label, and (a.iv) at least one of: a specificity segment, positioned 5' of the PAM sequence, that hybridizes with nucleotides of the first target site, and an orientation segment, positioned 3' of the PAM sequence, that hybridizes with nucleotides of the second target site; a specificity segment, positioned 5' of the PAM sequence, that hybridizes with nucleotides of the first target site, and an orientation segment, positioned 3' of the PAM sequence, that hybridizes with nucleotides of the second target site; (b) a Cas9 protein; and (c) a Cas9 guide RNA that forms a complex with the Cas9 protein and hybridizes with the first target site,
Fastening element for contacting shielded cables for cable glands for shielded cables, comprising • a mounting sleeve having • a first axial section for passing through an opening of a housing wall and • a cable duct extending in the longitudinal direction of the mounting sleeve , a fastening sleeve , • detachably attached to the first axial section of the mounting sleeve , and • which is formed from an electrically non-conductive material, wherein in the fastening sleeve an electrically conductive insert is arranged, comprising a cable shield contact element for electrical contacting of a cable shield , • which extends with one contact end in the direction of the cable duct, and • which is elastically deformable from a first radially inwardly lying unloaded position of the contact end to a loaded second position located radially outward from the first position, a wall contact element for electrically contacting a housing wall , • which extends from the cable shield contact element in the axial direction towards one side of the electrically conductive insert facing the housing wall . • a mounting sleeve having • a first axial section for passing through an opening of a housing wall and • a cable duct extending in the longitudinal direction of the mounting sleeve , a fastening sleeve , • detachably attached to the first axial section of the mounting sleeve , and • which is formed from an electrically non-conductive material, wherein in the fastening sleeve an electrically conductive insert is arranged, comprising a cable shield contact element for electrical contacting of a cable shield , wherein in the fastening sleeve an electrically conductive insert is arranged, comprising a cable shield contact element for electrical contacting of a cable shield , • which extends with one contact end in the direction of the cable duct, and • which is elastically deformable from a first radially inwardly lying unloaded position of the contact end to a loaded second position located radially outward from the first position, • which extends from the cable shield contact element in the axial direction towards one side of the electrically conductive insert facing the housing wall .
An apparatus for the generation and collection of beads, said apparatus comprising: (a) a bead generator for generating beads dispersed in a carrier fluid, the bead generator comprising a microfluidic device or a piezoelectric droplet generator; and (b) a device for separating beads from a carrier fluid, the device being arranged to receive beads dispersed in a carrier fluid from the bead generator, characterised in that the device for separating beads from a carrier fluid comprises: a bead-receiving means for receiving beads dispersed in a carrier fluid, a fluid removal means operable to remove fluid from the bead-receiving means in a first fluid removal zone (A) by the application of reduced pressure, and a bead collection means operable to remove beads from the bead-receiving means in a bead collection zone by the application of reduced pressure, the bead-receiving means being movable so that beads are movable from the first fluid removal zone to the bead collection zone. (a) a bead generator for generating beads dispersed in a carrier fluid, the bead generator comprising a microfluidic device or a piezoelectric droplet generator; and (b) a device for separating beads from a carrier fluid, the device being arranged to receive beads dispersed in a carrier fluid from the bead generator, a bead-receiving means for receiving beads dispersed in a carrier fluid, a fluid removal means operable to remove fluid from the bead-receiving means in a first fluid removal zone (A) by the application of reduced pressure, and a bead collection means operable to remove beads from the bead-receiving means in a bead collection zone by the application of reduced pressure, the bead-receiving means being movable so that beads are movable from the first fluid removal zone to the bead collection zone.
A plant cultivation method, comprising: providing, alternately, a growth period in which an amount of carbon dioxide absorbed by photosynthesis is larger than an amount of carbon dioxide emitted by respiration and a rest period in which an amount of carbon dioxide emitted by respiration is larger than an amount of carbon dioxide absorbed by photosynthesis; and growing a plant, wherein: in the rest period, a dark period in which an intensity of light applied to the cultivation target plant is lower than a light intensity at a light compensation point and a bright period in which blue light whose wavelength is 400 nm or greater and 500 nm or shorter is applied at an intensity that is lower than the light intensity at the light compensation point are provided alternately; a one-cycle time T of repetition of the dark period and the bright period is 2 μs or longer and 500 μs or shorter; and a duty ratio ΔT/T of a time ΔT of the bright period to the one-cycle time T is 20% or smaller; characterised in that the blue light has a photosynthetic photon flux density of 0.001 μmol·m -2 ·s -1 or higher and 4.0 μmol·m -2 ·s -1 or lower. in the rest period, a dark period in which an intensity of light applied to the cultivation target plant is lower than a light intensity at a light compensation point and a bright period in which blue light whose wavelength is 400 nm or greater and 500 nm or shorter is applied at an intensity that is lower than the light intensity at the light compensation point are provided alternately; a one-cycle time T of repetition of the dark period and the bright period is 2 μs or longer and 500 μs or shorter; and a duty ratio ΔT/T of a time ΔT of the bright period to the one-cycle time T is 20% or smaller; characterised in that the blue light has a photosynthetic photon flux density of 0.001 μmol·m -2 ·s -1 or higher and 4.0 μmol·m -2 ·s -1 or lower.