mhurhangee/ep-ind-claims huggingface dataset:
An ultrasonic diagnostic imaging system for aiding a user to perform a nuchal translucency measurement, the system comprising a software program, which when executed, causes the system to: acquire, using an ultrasound probe, ultrasound image data; produce fetal ultrasound images from the ultrasound image data, the fetal ultrasound images comprising at least a portion of a fetus; display successive fetal ultrasound images; in response to a user control, position a zoom box over a fetal ultrasound image over the nuchal fold of the fetus, wherein a size of the zoom box is automatically set by the system; in response to a user control enter a zoom-in mode enlarging the region of the image contained within the zoom box to magnify the nuchal translucency region; automatically track fetal image data within the zoom box from image to image in the successive images such that the zoom box follows the nuchal translucency region in real time; and provide the user with a good image of the fetal nuchal fold to perform a nuchal translucency measurement. acquire, using an ultrasound probe, ultrasound image data; produce fetal ultrasound images from the ultrasound image data, the fetal ultrasound images comprising at least a portion of a fetus; display successive fetal ultrasound images; in response to a user control, position a zoom box over a fetal ultrasound image over the nuchal fold of the fetus, wherein a size of the zoom box is automatically set by the system; in response to a user control enter a zoom-in mode enlarging the region of the image contained within the zoom box to magnify the nuchal translucency region; automatically track fetal image data within the zoom box from image to image in the successive images such that the zoom box follows the nuchal translucency region in real time; and provide the user with a good image of the fetal nuchal fold to perform a nuchal translucency measurement.
Device for comminuting foodstuffs, having a base part which has a receptacle which can receive at least two cutting parts (2, 3) on top of one another, and having an activation part which has a press ram by means of which a product to be comminuted is capable of being advanced along an advancing direction through the cutting parts (2, 3) that are inserted into the receptacle, wherein the two cutting parts (2, 3) are disposable at different mutual relative rotary alignments in the receptacle, characterized in that the activation part is connected to the base part in an articulated manner and is pivotable towards the base part so as to, by means of the press ram that carries out a pivoting movement, advance a product to be comminuted along the advancing direction through the cutting parts (2, 3) that are inserted into the receptacle, wherein the cutting parts (2, 3) that are stacked on top of one another in the receptacle, independently of the selected rotary alignment, are fixed in terms of the mutual relative alignment thereof in a plane perpendicular to the advancing direction in that one of the cutting parts stacked on top of one another in the receptacle has a coupling means which is operatively connected to a counter-coupling means of the other cutting part.
A packed dough product comprising at least two ready-to-use, fresh dough pieces, a mold having a top open end, and at least one barrier interface; wherein the dough pieces are stacked on top of each other within the mold and separated by barrier interfaces.
An air cleaner comprising a case and a muffling structure and being provided with a vent pipe for introduction purposes for introducing fresh air and a vent pipe for discharge purposes, wherein the muffling structure further comprises: an inner pipe that is disposed in the case and communicates with the introduction vent pipe or the discharge vent pipe; vent holes formed in a peripheral wall of the inner pipe; a non-ventilative cover so provided outside the peripheral wall as to cover the vent holes; activated charcoal contained in the cover; and a ventilative member interposed between the activated charcoal and the peripheral wall. an inner pipe that is disposed in the case and communicates with the introduction vent pipe or the discharge vent pipe; vent holes formed in a peripheral wall of the inner pipe; a non-ventilative cover so provided outside the peripheral wall as to cover the vent holes; activated charcoal contained in the cover; and a ventilative member interposed between the activated charcoal and the peripheral wall.
An artificial leather, comprising: multi-layer thermoplastic polyurethane mesh layers (11, 12), wherein fiber fineness of the TPU mesh layers ranges from 5 μm to 30 μm, and peeling strength of the TPU mesh layers is greater than 2.5 Kg/cm; characterized in that the TPU mesh layers comprise a first TPU mesh layer, a second TPU mesh layer disposed on the first TPU mesh layer and a third TPU mesh layer disposed on the second TPU mesh layer, wherein the fiber fineness of the first TPU mesh layer ranges from 10 μm to 30 μm, the fiber fineness of the second TPU mesh layer ranges from 10 μm to 30 μm, the fiber fineness of the third TPU mesh layer ranges from 5 μm to 10 μm, and the third TPU mesh layer is a surface TPU mesh layer. multi-layer thermoplastic polyurethane mesh layers (11, 12), wherein fiber fineness of the TPU mesh layers ranges from 5 μm to 30 μm, and peeling strength of the TPU mesh layers is greater than 2.5 Kg/cm; characterized in that the TPU mesh layers comprise a first TPU mesh layer, a second TPU mesh layer disposed on the first TPU mesh layer and a third TPU mesh layer disposed on the second TPU mesh layer, wherein the fiber fineness of the first TPU mesh layer ranges from 10 μm to 30 μm, the fiber fineness of the second TPU mesh layer ranges from 10 μm to 30 μm, the fiber fineness of the third TPU mesh layer ranges from 5 μm to 10 μm, and the third TPU mesh layer is a surface TPU mesh layer.
A nucleic acid molecule for inhibiting an activity of a target RNAi molecule, comprising: a single-stranded nucleic acid moiety including one or more unmodified DNA regions consisting of a nucleotide sequence sufficiently complementary to a nucleotide sequence of a functional strand having the activity in the target RNAi molecule; and a double-stranded nucleic acid moiety linked to at least one of the 5'-end and the 3'-end of the single-stranded nucleic acid moiety, wherein at least one unmodified DNA region comprises a mismatch site of 3 to 8 successive nucleotides that forms a loop when the unmodified DNA region is allowed to form base pairs with the functional strand. a single-stranded nucleic acid moiety including one or more unmodified DNA regions consisting of a nucleotide sequence sufficiently complementary to a nucleotide sequence of a functional strand having the activity in the target RNAi molecule; and a double-stranded nucleic acid moiety linked to at least one of the 5'-end and the 3'-end of the single-stranded nucleic acid moiety, wherein at least one unmodified DNA region comprises a mismatch site of 3 to 8 successive nucleotides that forms a loop when the unmodified DNA region is allowed to form base pairs with the functional strand.
A method for manufacturing at least one monolithic inorganic porous support having a porosity comprised between 10% and 60% and an average pore diameter ranging from 0.5 μm to 50 μm, using a 3D printing machine including at least one extrusion head movably mounted in space relative to and above a fixed horizontal plate, said 3D printing machine allowing the deposition of a string (7i,j) of inorganic composition to build, from a 3D digital model, a manipulable three-dimensional raw structure intended to form the monolithic inorganic porous support(s), the method consisting of: - having the inorganic composition, said inorganic composition, including a first powdery solid inorganic phase in the form of particles with an average diameter comprised between 0.1 μm and 150 μm, and a second phase in the form of a matrix comprising at least one hot-melt polymer, - supplying the extrusion head of the 3D printing machine with the inorganic composition, said extrusion head being at a temperature allowing the extrusion of the inorganic composition to form the string (7i,j), - building, using said string (7i,j) on said horizontal plate, the manipulable three-dimensional raw structure in accordance with the 3D digital model, - placing this manipulable three-dimensional raw structure in a heat treatment furnace in order to carry out a sintering operation at a temperature comprised between 0.5 and 1 times the melting temperature of at least one material forming the powdery solid inorganic phase. - having the inorganic composition, said inorganic composition, including a first powdery solid inorganic phase in the form of particles with an average diameter comprised between 0.1 μm and 150 μm, and a second phase in the form of a matrix comprising at least one hot-melt polymer, - supplying the extrusion head of the 3D printing machine with the inorganic composition, said extrusion head being at a temperature allowing the extrusion of the inorganic composition to form the string (7i,j), - building, using said string (7i,j) on said horizontal plate, the manipulable three-dimensional raw structure in accordance with the 3D digital model, - placing this manipulable three-dimensional raw structure in a heat treatment furnace in order to carry out a sintering operation at a temperature comprised between 0.5 and 1 times the melting temperature of at least one material forming the powdery solid inorganic phase.
Optical beam routing apparatus comprising: at least one optical input to receive an input beam; a plurality of optical outputs; a spatial light modulator on an optical path between said optical input and said optical outputs; and a driver for said SLM to display a kinoform on said SLM to diffract said input beam into an output beam comprising a plurality of diffraction orders, wherein a routed one of said diffraction orders is directed to at least one selected said optical output; wherein said apparatus comprises a lens or mirror arranged between said SLM and said optical outputs in said optical path, wherein said lens or mirror is configured to modify a wavefront of said output beam by displacing said optical outputs away from a focal plane defined by said lens or mirror to reduce a coupling of said output beam into said selected optical output, wherein at least part of said wavefront is modified by a phase of at least π/2; and said kinoform is configured to introduce lens power to the routed one of the diffraction orders such that the kinoform is adapted to compensate for said displacement by said lens or mirror to compensate for said reduced coupling and thereby to reduce a coupling of other diffracted light from said input beam into others of said optical outputs than said at least one selected optical output. at least one optical input to receive an input beam; a plurality of optical outputs; a spatial light modulator on an optical path between said optical input and said optical outputs; and a driver for said SLM to display a kinoform on said SLM to diffract said input beam into an output beam comprising a plurality of diffraction orders, wherein a routed one of said diffraction orders is directed to at least one selected said optical output; wherein said apparatus comprises a lens or mirror arranged between said SLM and said optical outputs in said optical path, wherein said lens or mirror is configured to modify a wavefront of said output beam by displacing said optical outputs away from a focal plane defined by said lens or mirror to reduce a coupling of said output beam into said selected optical output, wherein at least part of said wavefront is modified by a phase of at least π/2; and said kinoform is configured to introduce lens power to the routed one of the diffraction orders such that the kinoform is adapted to compensate for said displacement by said lens or mirror to compensate for said reduced coupling and thereby to reduce a coupling of other diffracted light from said input beam into others of said optical outputs than said at least one selected optical output.
A method for radiolabelling a biological targeting molecule which comprises: (i) provision of a protected compound of Formula -X 1 (ii) deprotection of the protected compound of Formula of step (i) to give an aminooxy compound of Formula -O-NH 2 (iii) condensation of the aminooxy compound of Formula with a carbonyl compound of Formula (IIIA) Q-[linker]-(C=O)Y 1 (IIIA) to give a radiolabelled conjugate of Formula: -O-N=(CY 1)-[linker]-Q wherein: is a biological targeting molecule; X 1 is a protected aminooxy group of formula: wherein R 1 and R 2 are independently chosen from C 1-3 alkyl, C 1-3 fluoroalkyl or C 4-6 aryl; Q is a group which comprises a radioisotope suitable for PET or SPECT imaging in vivo; Y 1 is H, C 1-6 alkyl or C 4-10 aryl, [linker] is a linker group. (i) provision of a protected compound of Formula -X 1 (ii) deprotection of the protected compound of Formula of step (i) to give an aminooxy compound of Formula -O-NH 2 (iii) condensation of the aminooxy compound of Formula with a carbonyl compound of Formula (IIIA) Q-[linker]-(C=O)Y 1 (IIIA) to give a radiolabelled conjugate of Formula: -O-N=(CY 1)-[linker]-Q wherein: is a biological targeting molecule; X 1 is a protected aminooxy group of formula: wherein R 1 and R 2 are independently chosen from C 1-3 alkyl, C 1-3 fluoroalkyl or C 4-6 aryl; Q is a group which comprises a radioisotope suitable for PET or SPECT imaging in vivo; Y 1 is H, C 1-6 alkyl or C 4-10 aryl, [linker] is a linker group. is a biological targeting molecule; X 1 is a protected aminooxy group of formula: wherein R 1 and R 2 are independently chosen from C 1-3 alkyl, C 1-3 fluoroalkyl or C 4-6 aryl; Q is a group which comprises a radioisotope suitable for PET or SPECT imaging in vivo; Y 1 is H, C 1-6 alkyl or C 4-10 aryl, [linker] is a linker group.
An apparatus for fastening a vacuum pump, in particular a turbomolecular vacuum pump, to a base, in particular to a pump stand, wherein the vacuum pump comprises a stationary unit to be fastened to the base and a rotation unit which rotates relative to the stationary unit during operation, said apparatus comprising at least one energy absorber whose pump-side section is fastenable to the stationary unit of the vacuum pump and whose base-side section is fastenable to the base; wherein the two sections (20, 22) of the energy absorber are connected to one another and can be displaced with respect to one another in a connected state; and wherein, in the case of a disturbance of the vacuum pump, the energy absorber is configured to absorb kinetic energy of the vacuum pump, which is transmitted from the rotation unit onto the stationary unit and introduced into the energy absorber, by displacing the sections (20, 22) while maintaining the connected state of the sections (20, 22), for which purpose the sections (20, 22) of the energy absorber are configured as separate components, with the energy absorption taking place by braking the one component by means of the other component, characterized in that the two components each have a basic structure, with at least one of the components additionally being provided with a friction-enhancing material at least regionally at the basic structure.
An optical scanning device comprising: a light source unit configured to emit a light beam; a light deflecting unit configured to two-dimensionally deflect the light beam in a main scanning direction and a sub-scanning direction orthogonal to the main scanning direction; an image formation unit configured to form an image by two-dimensional scanning of the light beam performed by the light deflecting unit, wherein the image light generated at the image formation unit is emitted outside the optical scanning device; and a flat plate configured to transmit light incident on the light deflecting unit and deflected reflection light from the light deflecting unit, arranged in an optical path of the light beam between the light deflecting unit and the image formation unit, and characterized in that in a cross section in the sub-scanning direction, the flat plate is inclined in a direction in which an angle increases, the angle being formed by a virtual line, which forms a smaller angle with a perpendicular line of the flat plate, of two virtual lines (251, 252) each of which diagonally connects an end of the flat plate and an end of the image formation unit, and the perpendicular line of the flat plate, such that, if light having entered the image formation unit is scattered by the image formation unit and reflected by the flat plate, the reflected light does not re-enter the image formation unit. a light source unit configured to emit a light beam; a light deflecting unit configured to two-dimensionally deflect the light beam in a main scanning direction and a sub-scanning direction orthogonal to the main scanning direction; an image formation unit configured to form an image by two-dimensional scanning of the light beam performed by the light deflecting unit, wherein the image light generated at the image formation unit is emitted outside the optical scanning device; and a flat plate configured to transmit light incident on the light deflecting unit and deflected reflection light from the light deflecting unit, arranged in an optical path of the light beam between the light deflecting unit and the image formation unit, and characterized in that in a cross section in the sub-scanning direction, the flat plate is inclined in a direction in which an angle increases, the angle being formed by a virtual line, which forms a smaller angle with a perpendicular line of the flat plate, of two virtual lines (251, 252) each of which diagonally connects an end of the flat plate and an end of the image formation unit, and the perpendicular line of the flat plate, such that, if light having entered the image formation unit is scattered by the image formation unit and reflected by the flat plate, the reflected light does not re-enter the image formation unit.
An optical line termination device (12, 52) for a passive optical network (10, 50), the optical line termination device (12, 52) configured to: determine downstream transmission characteristics for channels between the optical line termination device (12, 52) and a plurality of optical network units (16, 56); configure a plurality of transmission schemes for a plurality of the channels, each transmission scheme being dependent on the downstream transmission characteristics of the respective channel; group two or more of the plurality of channels having similar transmission characteristics; apply a common transmission scheme to downstream transmissions addressed to channels within the group; and transmit one or more frames addressed to one of the plurality of channels in accordance with the transmission scheme for the respective channel. determine downstream transmission characteristics for channels between the optical line termination device (12, 52) and a plurality of optical network units (16, 56); configure a plurality of transmission schemes for a plurality of the channels, each transmission scheme being dependent on the downstream transmission characteristics of the respective channel; group two or more of the plurality of channels having similar transmission characteristics; apply a common transmission scheme to downstream transmissions addressed to channels within the group; and transmit one or more frames addressed to one of the plurality of channels in accordance with the transmission scheme for the respective channel.
A system for washing fat from salvaged blood, the system comprising: a reservoir configured to collect salvaged blood from a patient; a rotatable centrifuge bowl fluidly connected to the reservoir and configured to separate the salvaged blood into a plurality of blood components; a product container fluidly connected to the rotatable centrifuge bowl and configured to collect a washed blood component; a waste container fluidly connected to an outlet of the rotatable centrifuge bowl and configured to collect a waste product from the centrifuge bowl; a pump configured to control the flow of fluid through the system; and a controller configured to control the operation of the pump and centrifuge bowl to transfer a first volume of unwashed blood components from the centrifuge bowl back toward the reservoir, re-centrifuge the blood components remaining within the centrifuge bowl, refill the centrifuge bowl with salvaged blood from the reservoir, and introduce wash solution into the centrifuge bowl, the wash solution displacing a volume of fat from the centrifuge bowl into the waste container. a reservoir configured to collect salvaged blood from a patient; a rotatable centrifuge bowl fluidly connected to the reservoir and configured to separate the salvaged blood into a plurality of blood components; a product container fluidly connected to the rotatable centrifuge bowl and configured to collect a washed blood component; a waste container fluidly connected to an outlet of the rotatable centrifuge bowl and configured to collect a waste product from the centrifuge bowl; a pump configured to control the flow of fluid through the system; and a controller configured to control the operation of the pump and centrifuge bowl to transfer a first volume of unwashed blood components from the centrifuge bowl back toward the reservoir, re-centrifuge the blood components remaining within the centrifuge bowl, refill the centrifuge bowl with salvaged blood from the reservoir, and introduce wash solution into the centrifuge bowl, the wash solution displacing a volume of fat from the centrifuge bowl into the waste container.