mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of whey protein concentrates low in germs, comprising the following steps: (a) ultrafiltrating whey at a temperature of 2 to 25 °C to produce a first retentate R1 and a first permeate P1; (b) microfiltrating said first retentate R1 from step (a) at a temperature of 6 to 35 °C to obtain a second retentate R2 and a second permeate P2; (c) ultrafiltrating said the second permeate P2 from step (b) at a temperature of 2 to 25 °C to obtain a third retentate R3 and a third permeate P3; (d) pasteurizing said third retentate R3 from step (c) (e) drying said pasteurized product from step (d). (a) ultrafiltrating whey at a temperature of 2 to 25 °C to produce a first retentate R1 and a first permeate P1; (b) microfiltrating said first retentate R1 from step (a) at a temperature of 6 to 35 °C to obtain a second retentate R2 and a second permeate P2; (c) ultrafiltrating said the second permeate P2 from step (b) at a temperature of 2 to 25 °C to obtain a third retentate R3 and a third permeate P3; (d) pasteurizing said third retentate R3 from step (c) (e) drying said pasteurized product from step (d).
A system for mapping interluminal structures, comprising: an elongated flexible instrument; an optical shape sensing device (152, 154) disposed within the flexible instrument and configured to determine a shape of the flexible instrument relative to a reference, the shape sensing device configured to collect information based on its configuration to map an interluminal structure during a procedure; characterized by an imaging enabled ablation device mounted at or near a distal end portion of the flexible instrument, wherein the optical shape sensing device includes an area of higher sensitivity by including an area with a higher number of optical fibers having optical strain sensors. an elongated flexible instrument; an optical shape sensing device (152, 154) disposed within the flexible instrument and configured to determine a shape of the flexible instrument relative to a reference, the shape sensing device configured to collect information based on its configuration to map an interluminal structure during a procedure; characterized by an imaging enabled ablation device mounted at or near a distal end portion of the flexible instrument, wherein the optical shape sensing device includes an area of higher sensitivity by including an area with a higher number of optical fibers having optical strain sensors.
A method for producing, filling and pressurizing a thin-walled plastic container with a material weight/wall surface ratio in the range of 150 g/m2 to 250 g/m2, aimed at containing a flat liquid, the method including the following steps: - producing the container, - cold-filling the container, which has residual stresses, with said flat liquid, - sealing the container after filling, and - heating the wall of the container, without rise in temperature of the liquid, in order to reach the temperature of the glass transition point of the container and to reach the temperature of release of said residual stresses so as to generate a pressurizing of the interior of said container. - producing the container, - cold-filling the container, which has residual stresses, with said flat liquid, - sealing the container after filling, and - heating the wall of the container, without rise in temperature of the liquid, in order to reach the temperature of the glass transition point of the container and to reach the temperature of release of said residual stresses so as to generate a pressurizing of the interior of said container.
A nozzle assembly (100; 200; 300; 400) comprising: a nozzle body (102; 202; 402) defining an inlet and an opposed spray outlet for producing a spray of fluid supplied at the inlet, wherein the nozzle body includes a retainer feature (108; 208; 308); an adapter (110; 210; 310) having an adapter bore therethrough for supplying fluid to the inlet of the nozzle body, wherein the nozzle body is engaged in fluid communication with the bore of the adapter; a retainer (112; 212; 312; 412) radially outward of the nozzle body and including a retainer feature (114; 214; 314) engaged to the retainer feature of the nozzle body to hold the nozzle body and adapter together; and a sleeve (116; 216; 416) engaged to the retainer radially outward thereof to prevent disengagement of the retainer features of the nozzle body and retainer, wherein the sleeve and retainer are configured for relative movement for releasing the retainer features of the nozzle body and retainer for removal of the nozzle body from the adapter, characterised in that: the retainer feature of the nozzle body is a radially outward extending retainer feature; and the retainer is radially outward of the adapter. a nozzle body (102; 202; 402) defining an inlet and an opposed spray outlet for producing a spray of fluid supplied at the inlet, wherein the nozzle body includes a retainer feature (108; 208; 308); an adapter (110; 210; 310) having an adapter bore therethrough for supplying fluid to the inlet of the nozzle body, wherein the nozzle body is engaged in fluid communication with the bore of the adapter; a retainer (112; 212; 312; 412) radially outward of the nozzle body and including a retainer feature (114; 214; 314) engaged to the retainer feature of the nozzle body to hold the nozzle body and adapter together; and a sleeve (116; 216; 416) engaged to the retainer radially outward thereof to prevent disengagement of the retainer features of the nozzle body and retainer, wherein the sleeve and retainer are configured for relative movement for releasing the retainer features of the nozzle body and retainer for removal of the nozzle body from the adapter, characterised in that: the retainer feature of the nozzle body is a radially outward extending retainer feature; and the retainer is radially outward of the adapter. the retainer feature of the nozzle body is a radially outward extending retainer feature; and the retainer is radially outward of the adapter.
A fishing reel comprising: a spool, a power supply, a controller, a flight distance measurer, and at least one of: a clutch, and a clutch state detector, and a spool state detector that detects the rotation state of the spool, wherein the controller switches between a first state of high power consumption, and a second state of lower power consumption than the first state, wherein the controller switches from the second state to the first state when detecting either: the off-state of the clutch, the forward rotation of the spool, or the rotation of the spool at a rotation speed of 500rpm or more; and wherein the controller switches the power consumption state of the flight distance measurer so that the first state is a measurable state, and the second state is a measurement stop state. a spool, a power supply, a controller, a flight distance measurer, and at least one of: a clutch, and a clutch state detector, and a spool state detector that detects the rotation state of the spool, a clutch, and a clutch state detector, and a spool state detector that detects the rotation state of the spool, wherein the controller switches between a first state of high power consumption, and a second state of lower power consumption than the first state, wherein the controller switches from the second state to the first state when detecting either: the off-state of the clutch, the forward rotation of the spool, or the rotation of the spool at a rotation speed of 500rpm or more; and the off-state of the clutch, the forward rotation of the spool, or the rotation of the spool at a rotation speed of 500rpm or more; and wherein the controller switches the power consumption state of the flight distance measurer so that the first state is a measurable state, and the second state is a measurement stop state.
An ultrasonic generator with an adjustable ultrasonic focusing depth, the ultrasonic generator comprising: a cartridge housing in which an ultrasound generation portion configured to generate ultrasound is provided; a hand piece (100, 101) in which the cartridge housing is detachably mounted, the hand piece having a first actuator thereinside; and a main shaft to which the ultrasound generation portion is coupled is movable in a horizontal direction, parallel to the bottom of the cartridge housing and a vertical direction, perpendicular to the bottom of the cartridge housing, wherein one end of the main shaft is coupled to one end of the first actuator of the hand piece (100, 101), and another end of the main shaft is located inside the cartridge housing, wherein the hand piece includes a movable plate to which the main shaft is fixed, the movable plate being provided so as to be movable inside the hand piece (100, 101) in the vertical direction; and a second actuator configured to move the movable plate in the vertical direction, a cartridge housing in which an ultrasound generation portion configured to generate ultrasound is provided; a hand piece (100, 101) in which the cartridge housing is detachably mounted, the hand piece having a first actuator thereinside; and a main shaft to which the ultrasound generation portion is coupled is movable in a horizontal direction, parallel to the bottom of the cartridge housing and a vertical direction, perpendicular to the bottom of the cartridge housing, wherein one end of the main shaft is coupled to one end of the first actuator of the hand piece (100, 101), and another end of the main shaft is located inside the cartridge housing, wherein the hand piece includes a movable plate to which the main shaft is fixed, the movable plate being provided so as to be movable inside the hand piece (100, 101) in the vertical direction; and a second actuator configured to move the movable plate in the vertical direction,
Habitation vehicle with at least one interior construction device, with at least one first spatial region and with at least one second spatial region, the interior construction device being configured optionally for an at least partial separation of the first spatial region and the second spatial region, the interior construction device comprising at least one movable door unit, which is movable from at least one first door position into at least one second door position and which comprises at least one first door element and at least one second door element that is at least indirectly coupled with the first door element, the door unit being configured to release the spatial regions (10, 12) in the first door position and to at least partly separate the first spatial region from the second spatial region in the second door position, wherein in the first door position the second door element is fixated immovably relative to the first door element and in the second door position the second door element is movable relative to the first door element, characterised in that the interior construction device comprises at least one fixation unit, which is configured, depending on the door position (16, 18), for a force-fit and/or form-fit fixation of the second door element to the first door element.
A composition comprising: an anchor region, wherein the anchor region is an antibody or antigen binding fragment thereof, which specifically binds one or more of CD138, CD38 or BCMA; and a binding region associated with the anchor region, wherein the binding region binds a specific plasma cell antibody, wherein the binding region is able to bind to an antibody released from the plasma cell such that the plasma cell is then targeted by the immune system for destruction, wherein the binding region is a target for the antibody released from the plasma cell, and wherein the binding region comprises an autoantigen selected from the group consisting of the nicotinic acetylcholine receptor, Muscarinic acetylcholine receptor M1, MuSK protein, myelina associated glycoprotein, 17 hydroxylase; 21 hydroxylase, cardiolipin, β2 glycoprotein I, phosphatidylserine, apoH, Annexin A5, Voltage-dependent calcium channel, Ganglioside D3, Ganglioside M1, Ganglioside Q1b, Thyroid peroxidase, Thyroglobulin, Glutamate decarboxylase, -cyclic citrullinated peptide, IgG-Fc portion, glycoproteins IIb-IIIa or Ib-IX, ADAMTS13, C1q, Complement Factor H, and glutamic acid decarboxylase. an anchor region, wherein the anchor region is an antibody or antigen binding fragment thereof, which specifically binds one or more of CD138, CD38 or BCMA; and a binding region associated with the anchor region, wherein the binding region binds a specific plasma cell antibody, wherein the binding region is able to bind to an antibody released from the plasma cell such that the plasma cell is then targeted by the immune system for destruction, wherein the binding region is a target for the antibody released from the plasma cell, and wherein the binding region comprises an autoantigen selected from the group consisting of the nicotinic acetylcholine receptor, Muscarinic acetylcholine receptor M1, MuSK protein, myelina associated glycoprotein, 17 hydroxylase; 21 hydroxylase, cardiolipin, β2 glycoprotein I, phosphatidylserine, apoH, Annexin A5, Voltage-dependent calcium channel, Ganglioside D3, Ganglioside M1, Ganglioside Q1b, Thyroid peroxidase, Thyroglobulin, Glutamate decarboxylase, -cyclic citrullinated peptide, IgG-Fc portion, glycoproteins IIb-IIIa or Ib-IX, ADAMTS13, C1q, Complement Factor H, and glutamic acid decarboxylase.
A pedal for bicycles comprising: a pedal-pin which extends along a longitudinal reference axis and has a first axial end structured to be coupled to a crank of a bicycle, a pedal-body coupled in a freely rotatable manner on said pedal-pin so that it can rotate around said reference axis, at least one internal chamber which is made in said pedal-pin and has an internal surface that extends along said reference axis approximately coaxial to the same, an electronic power measurement system comprising: strain gauges having a thin laminar structure, which are coupled to said pedal-pin and are configured so as to provide electrical measurement signals indicative of the mechanical deformation of the pedal-pin, electronic means which are electrically connected to the strain gauges and are configured so as to determine, on the basis of these electrical signals, the mechanical deformation of the pedal-pin caused by the force exerted by the cyclist during pedalling on the pedal-pin via the pedal-body, said pedal being characterised in that: the strain gauges are rigidly fixed on the internal surface of said internal chamber by means of a thin fixing layer of adhesive based material, so that they are supported by the internal surface in said internal chamber, said strain gauges are exclusively supported by said internal surface of said internal chamber. a pedal-pin which extends along a longitudinal reference axis and has a first axial end structured to be coupled to a crank of a bicycle, a pedal-body coupled in a freely rotatable manner on said pedal-pin so that it can rotate around said reference axis, at least one internal chamber which is made in said pedal-pin and has an internal surface that extends along said reference axis approximately coaxial to the same, an electronic power measurement system comprising: strain gauges having a thin laminar structure, which are coupled to said pedal-pin and are configured so as to provide electrical measurement signals indicative of the mechanical deformation of the pedal-pin, electronic means which are electrically connected to the strain gauges and are configured so as to determine, on the basis of these electrical signals, the mechanical deformation of the pedal-pin caused by the force exerted by the cyclist during pedalling on the pedal-pin via the pedal-body, strain gauges having a thin laminar structure, which are coupled to said pedal-pin and are configured so as to provide electrical measurement signals indicative of the mechanical deformation of the pedal-pin, electronic means which are electrically connected to the strain gauges and are configured so as to determine, on the basis of these electrical signals, the mechanical deformation of the pedal-pin caused by the force exerted by the cyclist during pedalling on the pedal-pin via the pedal-body, the strain gauges are rigidly fixed on the internal surface of said internal chamber by means of a thin fixing layer of adhesive based material, so that they are supported by the internal surface in said internal chamber, said strain gauges are exclusively supported by said internal surface of said internal chamber.
A method of performing foreign object detection, FOD, in a wireless power transmission system having a wireless power transmitter and a wireless power receiver, the method comprising: the wireless power transmitter storing one or more characteristics of the wireless power transmitter including information indicating how its one or more characteristics differ with respect to a reference wireless power transmitter as it pertains to Q-factor or self-resonant frequency; receiving, by the wireless power transmitter, a reference value from the wireless power receiver, the reference value being a reference Q-factor or self-resonant frequency; the wireless power transmitter determining an expected Q-factor or self-resonant frequency for the wireless power transmitter-receiver pair based on the reference value and the one or more characteristics of the wireless power transmitter; the wireless power transmitter setting a foreign object detection, FOD, threshold based on the expected Q-factor or self-resonant frequency for the wireless power transmitter-receiver pair; the wireless power transmitter performing an FOD measurement in the presence of the wireless power receiver to obtain an FOD measurement result; the wireless power transmitter determining whether to enable or disable wireless power transfer based on a comparison of the FOD measurement result and the FOD threshold; and the wireless power transmitter performing wireless power transfer to the wireless power receiver when the determination is made to enable wireless power transfer. the wireless power transmitter storing one or more characteristics of the wireless power transmitter including information indicating how its one or more characteristics differ with respect to a reference wireless power transmitter as it pertains to Q-factor or self-resonant frequency; receiving, by the wireless power transmitter, a reference value from the wireless power receiver, the reference value being a reference Q-factor or self-resonant frequency; the wireless power transmitter determining an expected Q-factor or self-resonant frequency for the wireless power transmitter-receiver pair based on the reference value and the one or more characteristics of the wireless power transmitter; the wireless power transmitter setting a foreign object detection, FOD, threshold based on the expected Q-factor or self-resonant frequency for the wireless power transmitter-receiver pair; the wireless power transmitter performing an FOD measurement in the presence of the wireless power receiver to obtain an FOD measurement result; the wireless power transmitter determining whether to enable or disable wireless power transfer based on a comparison of the FOD measurement result and the FOD threshold; and the wireless power transmitter performing wireless power transfer to the wireless power receiver when the determination is made to enable wireless power transfer.
A cylindrical reactor for preparing phosgene by gas-phase reaction of carbon monoxide and chlorine in the presence of a solid-state catalyst, which is provided in a plurality of catalyst tubes which are arranged parallel to one another in the longitudinal direction of the reactor and are welded at each of their two ends into a tube plate, with introduction of the starting materials at the upper end of the catalyst tubes and discharge of the gaseous reaction mixture at the lower end of the catalyst tubes, in each case via a cap, and also with introduction and discharge facilities for a liquid heat transfer medium in the space between the catalyst tubes within the shell, where the flow of the heat transfer medium in the space between the catalyst tubes within the shell is meandering as a result of deflection plates, each alternative deflection plate leaves two openings having the shape of a segment of a circle free on opposite sides at the interior wall of the reactor and the immediately subsequent deflection plate leaves a central opening which is bounded by two straight lines which are parallel to and equidistant from one another and a reactor diameter free and the reactor has no tubes in the region of the openings having the shape of a segment of a circle and in the region of the central openings, wherein the many catalyst tubes aligned parallel to one another in the longitudinal direction of the reactor are arranged in two bundles of identical catalyst tubes which are separated from one another by a region which is free of catalyst tubes and extends to both sides along a reactor diameter and the heat transfer coefficients at the interface between the catalyst tubes and the heat transfer medium are equalized over each reactor cross section by the flow paths of the heat transfer medium in each reactor cross section, in each case measured from the first to last catalyst tube in the flow direction of the heat transfer medium, being matched to one another by means of an arrangement of the catalyst tubes such that the lateral boundaries of the bundles of catalyst tubes to the untubed regions on the interior wall of the reactor are designed in the form of circular arcs.
A picosulfate bowel composition for use in a method of timing a colonoscopy procedure, the method comprising: administering, to the patient, a first picosulfate bowel composition the day before the procedure; administering, to the patient the day of the procedure, a second picosulfate bowel composition; and performing the procedure from 3 hours to 1 hour after the administration of the second bowel composition; wherein the first and the second bowel compositions comprise sodium picosulfate, magnesium oxide, and citric acid. administering, to the patient, a first picosulfate bowel composition the day before the procedure; administering, to the patient the day of the procedure, a second picosulfate bowel composition; and performing the procedure from 3 hours to 1 hour after the administration of the second bowel composition; wherein the first and the second bowel compositions comprise sodium picosulfate, magnesium oxide, and citric acid.