mhurhangee/patent-ind-claim-en huggingface dataset:
A solventless adhesive composition, comprising: (A) an isocyanate component comprising a prepolymer which is derived from the reaction of (i) one or more isocyanate compounds comprising at least two isocyanate groups with (ii) one or more first isocyanate-reactive compounds having at least two isocyanate-reactive groups and at least one side chains represented by Formula I and (iii) one or more second isocyanate-reactive compounds having at least two isocyanate-reactive groups and not having the side chain represented by Formula I: -R 2 -(O-R 1 -O) n -R 3 Formula I wherein R 1 represents a C 2 to C 4 alkylene group, R 2 is a C 1 to C 6 alkylene group, and R 3 is a C 1 to C 6 alkyl; and n is an integer of 8 to 25; wherein the prepolymer comprises at least two free isocyanate groups; and (B) an isocyanate-reactive component comprising one or more third isocyanate-reactive compounds having at least two isocyanate-reactive groups, wherein the third isocyanate-reactive compound is different from the first isocyanate-reactive compound. (A) an isocyanate component comprising a prepolymer which is derived from the reaction of (i) one or more isocyanate compounds comprising at least two isocyanate groups with (ii) one or more first isocyanate-reactive compounds having at least two isocyanate-reactive groups and at least one side chains represented by Formula I and (iii) one or more second isocyanate-reactive compounds having at least two isocyanate-reactive groups and not having the side chain represented by Formula I: -R 2 -(O-R 1 -O) n -R 3 Formula I wherein R 1 represents a C 2 to C 4 alkylene group, R 2 is a C 1 to C 6 alkylene group, and R 3 is a C 1 to C 6 alkyl; and n is an integer of 8 to 25; wherein the prepolymer comprises at least two free isocyanate groups; and wherein R 1 represents a C 2 to C 4 alkylene group, R 2 is a C 1 to C 6 alkylene group, and R 3 is a C 1 to C 6 alkyl; and n is an integer of 8 to 25; wherein the prepolymer comprises at least two free isocyanate groups; and (B) an isocyanate-reactive component comprising one or more third isocyanate-reactive compounds having at least two isocyanate-reactive groups, wherein the third isocyanate-reactive compound is different from the first isocyanate-reactive compound.
A method for determining binding capacities of each chromatography column (1; 39, 47, 59; 107, 109, 111, 113) in a periodic counter current (PCC) system, the method comprising: - detecting a feed signal (21; 201) representative of the composition of a feed material provided to the inlet of the columns; and - detecting an effluent signal (23; 203, 205, 207, 209) representative of the composition of effluent from each of the columns; the method being characterised in that the feed signal and the effluent signals are used to continuously determine binding capacities of the different chromatography columns (39, 47, 59; 107, 109, 111, 113) of the PCC system during the chromatography process. - detecting a feed signal (21; 201) representative of the composition of a feed material provided to the inlet of the columns; and - detecting an effluent signal (23; 203, 205, 207, 209) representative of the composition of effluent from each of the columns;
A core body comprising: a structure having a plurality of connected unit cells , and each unit cell of the plurality of connected unit cells has one or more sidewalls that are curved and have an inner surface that defines at least a portion of an inner passageway within and through the unit cell, the one or more sidewalls of the unit cell defining multiple orifices such that a first fluid can ingress the unit cell through one of the orifices and can egress the unit cell through another of the orifices, the one or more sidewalls including a cone disposed between at least some of the orifices of the unit cell, and the one or more sidewalls having an outer surface and a dimple defined along the outer surface at the cone, and the one or more sidewalls having an edge that extends around the orifices of the unit cell, wherein the edges of different unit cells connect to each other and the outer surface at least partially defines an outer passageway that is sealed from the inner passageway by the one or more sidewalls of the unit cell, the outer passageway configured to enable flow of a second fluid therethrough, and the one or more sidewalls of the unit cell configured to transport one or more of thermal energy, from a component of the first fluid flowing in the inner passageway to the second fluid flowing in the outer passageway without the first fluid mixing with the second fluid. a structure having a plurality of connected unit cells , and each unit cell of the plurality of connected unit cells has one or more sidewalls that are curved and have an inner surface that defines at least a portion of an inner passageway within and through the unit cell, the one or more sidewalls of the unit cell defining multiple orifices such that a first fluid can ingress the unit cell through one of the orifices and can egress the unit cell through another of the orifices, the one or more sidewalls including a cone disposed between at least some of the orifices of the unit cell, and the one or more sidewalls having an outer surface and a dimple defined along the outer surface at the cone, and the one or more sidewalls having an edge that extends around the orifices of the unit cell, wherein the edges of different unit cells connect to each other and the outer surface at least partially defines an outer passageway that is sealed from the inner passageway by the one or more sidewalls of the unit cell, the outer passageway configured to enable flow of a second fluid therethrough, and the one or more sidewalls of the unit cell configured to transport one or more of thermal energy, from a component of the first fluid flowing in the inner passageway to the second fluid flowing in the outer passageway without the first fluid mixing with the second fluid.
Method for capturing MR signals of a predefined volume section within an examination object (O) by means of a magnetic resonance installation using a gradient echo sequence, comprising steps as follows: switching a layer selection gradient in layer selection direction (LS), said layer selection gradient producing a balanced gradient moment; simultaneously exciting a plurality of layers (S0, S1) of the volume section by means of an HF excitation pulse which is repeated according to a repetition time (TR); varying from repetition time (TR) to repetition time (TR) the phase of MR signals to be captured from the same one of the layers (S0, S1); establishing an additional gradient in layer selection direction (LS) in addition to the layer selection gradient , wherein the additional gradient produces an additional gradient moment which is constant over consecutive repetition times (TR), wherein gradient moments that are produced by the gradient echo sequence without taking into account the additional gradient are balanced along all three spatial directions over the repetition time in each case, wherein the additional gradient moment, over the repetition time (TR) in each case, overrides the condition that the gradient moments of the gradient echo sequence are balanced along the layer selection direction (LS); and capturing the MR signals by means of a readout gradient . switching a layer selection gradient in layer selection direction (LS), said layer selection gradient producing a balanced gradient moment; simultaneously exciting a plurality of layers (S0, S1) of the volume section by means of an HF excitation pulse which is repeated according to a repetition time (TR); varying from repetition time (TR) to repetition time (TR) the phase of MR signals to be captured from the same one of the layers (S0, S1); establishing an additional gradient in layer selection direction (LS) in addition to the layer selection gradient , wherein the additional gradient produces an additional gradient moment which is constant over consecutive repetition times (TR), wherein gradient moments that are produced by the gradient echo sequence without taking into account the additional gradient are balanced along all three spatial directions over the repetition time in each case, wherein the additional gradient moment, over the repetition time (TR) in each case, overrides the condition that the gradient moments of the gradient echo sequence are balanced along the layer selection direction (LS); and capturing the MR signals by means of a readout gradient .
Device for holding a container in a container treatment device , preferably for holding a bottle at the bottle neck thereof, comprising a clasp carrier , a first clasp arm arranged on the clasp carrier so as to be pivotable about a first pivot axis , and a second clasp arm arranged on the clasp carrier so as to be pivotable about a second pivot axis , wherein the first clasp arm is longer than the second clasp arm , and wherein the first clasp arm and the second clasp arm are pivotally coupled to one another via a coupling arrangement , and the clasp arms are magnetically prestressed into a closed position, characterised in that the device is configured such that the clasp arms for receiving a container are only opened passively by inserting the container .
A quantum device comprising: a first qubit; a second qubit; a third qubit; a first coupler inductively coupled to each of the first, the second, and the third qubits by a respective mutual inductance; and an interface operable to apply a flux bias to a body of the first coupler, wherein each of the first, the second, and the third qubits is a superconducting flux qubit, and the first coupler is operable to provide a third-order interaction or a higher-order interaction among the first, the second, and the third qubits, and wherein the first qubit has a state, the state of the first qubit representative of a first input to the quantum device; the second qubit has a state, the state of the second qubit representative of a second input to the quantum device; the third qubit has a state, the state of the third qubit representative of an output from the quantum device; and the first coupler is further operable to provide a second-order interaction between each pair of qubits selected from the first, the second and the third qubits, and wherein the quantum device is a reversible logic gate. a first qubit; a second qubit; a third qubit; a first coupler inductively coupled to each of the first, the second, and the third qubits by a respective mutual inductance; and an interface operable to apply a flux bias to a body of the first coupler, wherein each of the first, the second, and the third qubits is a superconducting flux qubit, and the first coupler is operable to provide a third-order interaction or a higher-order interaction among the first, the second, and the third qubits, and wherein the first qubit has a state, the state of the first qubit representative of a first input to the quantum device; the second qubit has a state, the state of the second qubit representative of a second input to the quantum device; the third qubit has a state, the state of the third qubit representative of an output from the quantum device; and the first coupler is further operable to provide a second-order interaction between each pair of qubits selected from the first, the second and the third qubits, and wherein the quantum device is a reversible logic gate.
Load compensation device comprising: - an assisted joint (3; 302) configured to be constrained to a support structure (102, 104; 303; 702, 704); - a main rod comprising a proximal end connected to said assisted joint (3; 302), and further comprising a distal end configured to be stressed by an applied load ; - an auxiliary rod comprising a first end and a second end , said first end being hinged on said main rod for rotating said auxiliary rod with respect to said main rod , said second end being movable on a plane on which said applied load lies; - an elastic element configured to provide an elastic force which acts between said second end of said auxiliary rod and said distal end of said main rod ; Characterised in that , it further comprises: - a regulation system (313; 613) configured to modify a distance between said second end of said auxiliary rod and said assisted joint (3; 302), so as to vary a preloading of said elastic element ; wherein said elastic element is configured to provide said elastic force based on a kinematic configuration of said load compensation device , so as to compensate said applied load in a component thereof which is transverse to said main rod . - an assisted joint (3; 302) configured to be constrained to a support structure (102, 104; 303; 702, 704); - a main rod comprising a proximal end connected to said assisted joint (3; 302), and further comprising a distal end configured to be stressed by an applied load ; - an auxiliary rod comprising a first end and a second end , said first end being hinged on said main rod for rotating said auxiliary rod with respect to said main rod , said second end being movable on a plane on which said applied load lies; - an elastic element configured to provide an elastic force which acts between said second end of said auxiliary rod and said distal end of said main rod ; - a regulation system (313; 613) configured to modify a distance between said second end of said auxiliary rod and said assisted joint (3; 302), so as to vary a preloading of said elastic element ;
A device for use with a female needleless connector, having a proximal end, comprising: a housing comprising a proximal wall and a sidewall coupled to the proximal wall to define a chamber having a distal opening that is configured to fit over the proximal end of the female needleless connector; and an elongated finger attached to the proximal wall of the housing and disposed within the chamber , an outer surface of the elongate finger comprising an undercut extending therealong, such that the elongated finger opens a fluid path through the female needleless connector when the distal opening of the housing is placed adjacent to the proximal end of the female needleless connector and the device is advanced in a distal direction; and a matrix comprising a fluid-absorbing material having a portion that extends along an inner surface of the sidewall, and another portion that extends along the undercut of the elongated finger . a housing comprising a proximal wall and a sidewall coupled to the proximal wall to define a chamber having a distal opening that is configured to fit over the proximal end of the female needleless connector; and an elongated finger attached to the proximal wall of the housing and disposed within the chamber , an outer surface of the elongate finger comprising an undercut extending therealong, such that the elongated finger opens a fluid path through the female needleless connector when the distal opening of the housing is placed adjacent to the proximal end of the female needleless connector and the device is advanced in a distal direction; and a matrix comprising a fluid-absorbing material having a portion that extends along an inner surface of the sidewall, and another portion that extends along the undercut of the elongated finger .
An optical modulation system comprising: a signal source configured to generate an amplitude modulated electrical signal having a bandwidth and divide the amplitude modulated electrical signal into frequency components comprising at least a first frequency component covering a first portion of the bandwidth and a second frequency component covering a second portion of the bandwidth, the frequency components having different modulation patterns; and an electro-optic modulator for receiving an input optical signal , the modulator having a first optical path and a second optical path , the input optical signal being divided between the first optical path and the second optical path and recombined after propagation along the first optical path and the second optical path to produce an output optical signal , at least one of the first optical path and the second optical path comprising a phase shifter comprising a pair of electrodes in which each electrode is configured to receive a driving signal; wherein the or each phase shifter is coupled to the signal source to receive at least one of said frequency components as a driving signal for an electrode, and the or each phase shifter is arranged such that the phase shifter receives different frequency components as a pair of driving signals, or each phase shifter receives a different pair of driving signals. a signal source configured to generate an amplitude modulated electrical signal having a bandwidth and divide the amplitude modulated electrical signal into frequency components comprising at least a first frequency component covering a first portion of the bandwidth and a second frequency component covering a second portion of the bandwidth, the frequency components having different modulation patterns; and an electro-optic modulator for receiving an input optical signal , the modulator having a first optical path and a second optical path , the input optical signal being divided between the first optical path and the second optical path and recombined after propagation along the first optical path and the second optical path to produce an output optical signal , at least one of the first optical path and the second optical path comprising a phase shifter comprising a pair of electrodes in which each electrode is configured to receive a driving signal; wherein the or each phase shifter is coupled to the signal source to receive at least one of said frequency components as a driving signal for an electrode, and the or each phase shifter is arranged such that the phase shifter receives different frequency components as a pair of driving signals, or each phase shifter receives a different pair of driving signals.
A computer implemented method to output a tractography based on a determined confidence in a displayed image data of an anatomy, comprising: obtaining (step 122) gradient image data of the anatomy including data regarding diffusion of a matter in an anatomical structure; making a first estimate of a tract in the anatomical structure based upon a first criterion applied to the obtained image data (step 130); perturbing the first criterion to obtain a second criterion that is different from the first criterion (step 132); making a second estimate of a tract in the anatomical structure based upon the second criterion applied to the obtained image data; comparing the first and second estimates of a tract in the anatomical structure(step 134); determining a confidence factor based on the comparison (step 134); characterized by automatically outputting (step 136) a tractography of the anatomical structure, based on the comparison, when the confidence factor is within a confidence threshold, or determining (steps 135, 156) that a further perturbation is necessary if the confidence factor is outside the confidence threshold. obtaining (step 122) gradient image data of the anatomy including data regarding diffusion of a matter in an anatomical structure; making a first estimate of a tract in the anatomical structure based upon a first criterion applied to the obtained image data (step 130); perturbing the first criterion to obtain a second criterion that is different from the first criterion (step 132); making a second estimate of a tract in the anatomical structure based upon the second criterion applied to the obtained image data; comparing the first and second estimates of a tract in the anatomical structure(step 134); determining a confidence factor based on the comparison (step 134); characterized by automatically outputting (step 136) a tractography of the anatomical structure, based on the comparison, when the confidence factor is within a confidence threshold, or determining (steps 135, 156) that a further perturbation is necessary if the confidence factor is outside the confidence threshold.
Active-dynamic seating furniture having a seat part with a seat surface of a seating furniture and a resilient rocking mechanism for the seat part, arranged on a supporting frame , for executing movements with the seat part relative to the supporting frame , wherein the seat part is spring movably tiltably mounted on the supporting frame , wherein the resilient rocking mechanism comprises a first bracket comprising at least one lever arm , 21b), which is respectively connectable to a rear portion of the supporting frame , and a second bracket having at least one lever arm , which is respectively connectable to a front portion of the supporting frame , wherein the seat part is attached to the brackets by means of elastically deformable bearings and wherein the seat part is attached to the rocker mechanism by means of the elastically deformable bearings .
A computer-implemented method for calculating a future position of an intraoral object of a patient's intraoral cavity, the method comprising: receiving first digital data representative of an actual state of the patient's intraoral cavity at a first time point; receiving second digital data representative of an actual state of the patient's intraoral cavity at a second time point different from the first time point; processing data including the first and second digital data so as to determine a change in position of the intraoral object of the patient's intraoral cavity between the first time point and the second time point; determining a future position of the intraoral object at a future time point based on the determined change in position, wherein the future position is determined prior to the intraoral object being in the future position; determining a future condition of the patient's intraoral cavity based on the future position of the intraoral object, wherein the future condition comprises an undesirable dental or orthodontic condition that is predicted to occur at the future time point, and wherein the future condition is determined prior to occurrence of the future condition; providing, to a dental practitioner, third digital data, wherein the third digital data comprises an indication that the undesirable dental or orthodontic condition occurs. receiving first digital data representative of an actual state of the patient's intraoral cavity at a first time point; receiving second digital data representative of an actual state of the patient's intraoral cavity at a second time point different from the first time point; processing data including the first and second digital data so as to determine a change in position of the intraoral object of the patient's intraoral cavity between the first time point and the second time point; determining a future position of the intraoral object at a future time point based on the determined change in position, wherein the future position is determined prior to the intraoral object being in the future position; determining a future condition of the patient's intraoral cavity based on the future position of the intraoral object, wherein the future condition comprises an undesirable dental or orthodontic condition that is predicted to occur at the future time point, and wherein the future condition is determined prior to occurrence of the future condition; providing, to a dental practitioner, third digital data, wherein the third digital data comprises an indication that the undesirable dental or orthodontic condition occurs.