mhurhangee/ep-ind-claims huggingface dataset:
A surgical device comprising: a forceps device capable of performing a bending movement, and opening and closing movements of grasping portions (27a, 27b) thereof; a plurality of driven portions (31, 31a, 31b, 31c) to each of which driving force is transmitted from outside of the surgical device, the driving force causing each of the driven portions (31, 31a, 31b, 31c) to individually move linearly; a plurality of cords (35, 35a, 35b, 35c) each being fixed to one of the driven portions (31, 31a, 31b, 31c), the cords (35, 35a, 35b, 35c) transmitting linear movements of the driven portions (31, 31a, 31b, 31c) to the forceps device, a housing containing the driven portions (31, 31a, 31b, 31c) and the cords (35, 35a, 35b, 35c) therein; and a shaft in which the cords (35, 35a, 35b, 35c) are arranged, wherein the forceps device includes a joint portion that performs the bending movement when a cord (35a, 35c) for bending movement among the cords (35, 35a, 35b, 35c) is pulled, and a link mechanism that performs the opening and closing movements when a cord for opening and closing movements among the cords (35, 35a, 35b, 35c) is moved, and the driven portions (31, 31a, 31b, 31c) are each configured to move along an axial direction of the shaft, and are arranged in a direction intersecting the axial direction of the shaft. a forceps device capable of performing a bending movement, and opening and closing movements of grasping portions (27a, 27b) thereof; a plurality of driven portions (31, 31a, 31b, 31c) to each of which driving force is transmitted from outside of the surgical device, the driving force causing each of the driven portions (31, 31a, 31b, 31c) to individually move linearly; a plurality of cords (35, 35a, 35b, 35c) each being fixed to one of the driven portions (31, 31a, 31b, 31c), the cords (35, 35a, 35b, 35c) transmitting linear movements of the driven portions (31, 31a, 31b, 31c) to the forceps device, a housing containing the driven portions (31, 31a, 31b, 31c) and the cords (35, 35a, 35b, 35c) therein; and a shaft in which the cords (35, 35a, 35b, 35c) are arranged, wherein the forceps device includes a joint portion that performs the bending movement when a cord (35a, 35c) for bending movement among the cords (35, 35a, 35b, 35c) is pulled, and a link mechanism that performs the opening and closing movements when a cord for opening and closing movements among the cords (35, 35a, 35b, 35c) is moved, and the driven portions (31, 31a, 31b, 31c) are each configured to move along an axial direction of the shaft, and are arranged in a direction intersecting the axial direction of the shaft.
An inter-system policy using method, performed by a User Equipment, UE, comprising: using a first UE policy applied to a first system when traffic is processed in the first system; and using a UE policy applied to a second system when traffic is processed in the second system, wherein the UE policy applied to the second system and the first UE policy applied to the first system are applied to same UE, wherein the UE policy applied to the second system is a second UE policy; and at least some of the parameters in the second UE policy and at least some of the parameters of the first UE policy are different, and there is a mapping relationship between the at least some of the parameters of the second UE policy and the at least some of the parameters of the first UE policy, wherein the UE policy is User Equipment Routing Selection Policy, URSP, a Precedence parameter in a rule of the first UE policy is the same with that in a rule of the second UE policy, and a Traffic Descriptor parameter in a rule of the first UE policy is the same with that in a rule of the second UE policy. using a first UE policy applied to a first system when traffic is processed in the first system; and using a UE policy applied to a second system when traffic is processed in the second system, wherein the UE policy applied to the second system and the first UE policy applied to the first system are applied to same UE, wherein the UE policy applied to the second system is a second UE policy; and at least some of the parameters in the second UE policy and at least some of the parameters of the first UE policy are different, and there is a mapping relationship between the at least some of the parameters of the second UE policy and the at least some of the parameters of the first UE policy, wherein the UE policy is User Equipment Routing Selection Policy, URSP, a Precedence parameter in a rule of the first UE policy is the same with that in a rule of the second UE policy, and a Traffic Descriptor parameter in a rule of the first UE policy is the same with that in a rule of the second UE policy.
A method for co-production of monophenols and cellulose by transition metal oxide catalytic oxidation of biomass, comprising: (a) loading a reactor with pretreated dry biomass, transition metal oxide and alkali metal hydroxide solution and then the reactor is sealed, evacuated and refilled with O2, the O2 pressure being kept at 0.1∼3 MPa, and the mixture is allowed to react at 80~200 °C for 1∼180 min under stirring, and then cooled down at room temperature to obtain a suspension, wherein the dry biomass is pretreated by treatment with anhydrous ethanol and refluxing for 8 h, then dried at 50∼60 °C, and the content of transition metal oxide is 1~100% of the weight of the dry biomass; (b) the suspension obtained in step (a) is centrifuged to separate clear supernatant from solid residue, the supernatant being acidified to pH 2-3, an organic solvent being added to the acidified solution to extract phenolic compounds and the organic phase being gathered; the residual acid and water in the organic solution are removed and monophenols are obtained by vacuum distillation of the organic phase; and (c) the solid residue obtained in step (b) is placed in a sieve, and the catalyst is rinsed out with water while the biomass residue is retained on the sieve, the aqueous solution containing catalyst is filtered or centrifuged to recycle the spent catalyst, the biomass residue is washed with acid aqueous solution to remove the residual catalyst until the solution is clear, and continuedly washed with water until the pH value of waste liquid reaches 7 and then the biomass residue is dried. (a) loading a reactor with pretreated dry biomass, transition metal oxide and alkali metal hydroxide solution and then the reactor is sealed, evacuated and refilled with O2, the O2 pressure being kept at 0.1∼3 MPa, and the mixture is allowed to react at 80~200 °C for 1∼180 min under stirring, and then cooled down at room temperature to obtain a suspension, wherein the dry biomass is pretreated by treatment with anhydrous ethanol and refluxing for 8 h, then dried at 50∼60 °C, and the content of transition metal oxide is 1~100% of the weight of the dry biomass; (b) the suspension obtained in step (a) is centrifuged to separate clear supernatant from solid residue, the supernatant being acidified to pH 2-3, an organic solvent being added to the acidified solution to extract phenolic compounds and the organic phase being gathered; the residual acid and water in the organic solution are removed and monophenols are obtained by vacuum distillation of the organic phase; and (c) the solid residue obtained in step (b) is placed in a sieve, and the catalyst is rinsed out with water while the biomass residue is retained on the sieve, the aqueous solution containing catalyst is filtered or centrifuged to recycle the spent catalyst, the biomass residue is washed with acid aqueous solution to remove the residual catalyst until the solution is clear, and continuedly washed with water until the pH value of waste liquid reaches 7 and then the biomass residue is dried.
A method for creating a three-dimensional structure within a first material, the method comprising: causing a phase change in a region of the first material by applying focused energy to the region using a focused energy source; and displacing the first material in the region with a second material, wherein the first material is a Herschel-Bulkley material having a yield stress less than 100 Pascals, and wherein the yield stress is determined by shearing the material in a rheometer using plate-plate geometry and via the Herschel-Bulkley equation σ = σ y + kγ̇ p, where σ y is yield stress, σ is shear stress, k is viscosity index of the material, γ̇ is shear rate and p is a positive number, wherein when using the rheometer the material is sheared at a variety of shear rates extending from 1000 s -1 to 0.001 s -1 and for each shear rate the material is sheared for 30 seconds after which shear stress data is collected and averaged. causing a phase change in a region of the first material by applying focused energy to the region using a focused energy source; and displacing the first material in the region with a second material, wherein the first material is a Herschel-Bulkley material having a yield stress less than 100 Pascals, and wherein the yield stress is determined by shearing the material in a rheometer using plate-plate geometry and via the Herschel-Bulkley equation σ = σ y + kγ̇ p, where σ y is yield stress, σ is shear stress, k is viscosity index of the material, γ̇ is shear rate and p is a positive number, wherein when using the rheometer the material is sheared at a variety of shear rates extending from 1000 s -1 to 0.001 s -1 and for each shear rate the material is sheared for 30 seconds after which shear stress data is collected and averaged.
A ballistic resistant article comprising at least one consolidated composite, wherein the at least one consolidated composite comprises a layer A and a layer B bonded to one another, each layer A and B exhibits - a first surface, - a second surface opposite to the first surface, and - a cross-section extending from the first surface to the second surface, each layer A and each layer B comprises a network of fibers having a strength of at least 800 mN/tex (1100 MPa) according to ASTM D 7269-07, and the fibers in each layer A and B are impregnated with a matrix material, characterized in that the matrix material is distributed along the cross-section of each layer in the shape of a concentration gradient, wherein the concentration starts with a maximum value on the first surface, so that the first surface is rich in matrix material, decreases along the cross-section and reaches a minimum value on the second surface, so that the second surface is poor in matrix material, and the matrix material comprises a mixture of 75 to 95 wt.% of a polychloroprene, and 5 to 25 wt.% of a random copolymer of vinyl chloride and an acrylic ester based on a weight of the mixture. - a first surface, - a second surface opposite to the first surface, and - a cross-section extending from the first surface to the second surface,
A method for manufacturing a polyoxyethylene alkyl ether acetic acid, comprising feeding oxygen into a liquid phase containing a polyoxyethylene alkyl ether having a hydrocarbon group at the end and water and dehydrogenating and oxidizing the polyoxyethylene alkyl ether in the presence of a platinum catalyst, wherein the mass ratio of the total mass of the polyoxyethylene alkyl ether and the polyoxyethylene alkyl ether acetic acid to the mass of water in the liquid phase (i.e., total mass of polyoxyethylene alkyl ether and polyoxyethylene alkyl ether acetic acid/mass of water) is 60/40 to 95/5.
A tamper-resistant element, adapted for speaker recognition, the tamper-resistant element being adapted for storing data representing speaker information based on speaker recognition enrollment data and for checking whether first information based on a speaker recognition testing signal matches the speaker information, characterized in that the tamper-resistant element comprises an ARM trust zone, and in that the tamper-resistant element is adapted for storing information for use in a spoof check, and for carrying out a spoof check using second information based on the speaker recognition testing signal, wherein the second information comprises an anti-spoofing feature vector, and wherein the anti-spoofing feature vector comprises at least one of a spectral ratio, a low frequency ratio, and a feature vector squared Mahalanobis distance, and in that the tamper-resistant element is also adapted for carrying out a data integrity check based on the first information and the second information.
Optical sensor arrangement comprising - an optoelectronic device (E, D) and a cover arrangement (C, CL) covering the optoelectronic device (E, D), wherein the optoelectronic device (E, D) is configured to emit or detect at least electromagnetic radiation with a first wavelength through an aperture (A, AF) of the cover arrangement; and - a mirror arrangement arranged between the optoelectronic device and the aperture, wherein - the mirror arrangement comprises a wavelength selective mirror (HM, HMF, CM, CMF) with a passband and a stopband, - the passband includes a first wavelength range containing the first wavelength and the stopband includes a second wavelength range corresponding to visible light or vice versa, - the optoelectronic device (E, D) has an active surface extending along a first principal plane and the wavelength selective mirror extends along a second principal plane, characterised in that: - the mirror arrangement comprises an optically opaque element (OE, OEF), opaque for visible light and for a range of infrared radiation, extending along a fourth principal plane being perpendicular to the first principal plane. - an optoelectronic device (E, D) and a cover arrangement (C, CL) covering the optoelectronic device (E, D), wherein the optoelectronic device (E, D) is configured to emit or detect at least electromagnetic radiation with a first wavelength through an aperture (A, AF) of the cover arrangement; and - a mirror arrangement arranged between the optoelectronic device and the aperture, wherein - the mirror arrangement comprises a wavelength selective mirror (HM, HMF, CM, CMF) with a passband and a stopband, - the passband includes a first wavelength range containing the first wavelength and the stopband includes a second wavelength range corresponding to visible light or vice versa, - the mirror arrangement comprises a wavelength selective mirror (HM, HMF, CM, CMF) with a passband and a stopband, - the passband includes a first wavelength range containing the first wavelength and the stopband includes a second wavelength range corresponding to visible light or vice versa, - the optoelectronic device (E, D) has an active surface extending along a first principal plane and the wavelength selective mirror extends along a second principal plane, characterised in that: - the mirror arrangement comprises an optically opaque element (OE, OEF), opaque for visible light and for a range of infrared radiation, extending along a fourth principal plane being perpendicular to the first principal plane. - the mirror arrangement comprises an optically opaque element (OE, OEF), opaque for visible light and for a range of infrared radiation, extending along a fourth principal plane being perpendicular to the first principal plane.
A process for preparing a therapeutic nanoparticle, comprising: combining a first organic phase with a first aqueous solution to form a second phase; emulsifying the second phase to form an emulsion phase, wherein the emulsion phase comprises a first polymer, a basic therapeutic agent having a protonatable nitrogen, and pamoic acid; and quenching of the emulsion phase thereby forming a quenched phase; wherein quenching of the emulsion phase comprises mixing the emulsion phase with a second aqueous solution having a pH between 4 and 7, and the second aqueous solution comprises a buffering agent of sufficient concentration that the quenched phase has a pH that differs from the pH of the second aqueous solution by less than 1 pH unit. combining a first organic phase with a first aqueous solution to form a second phase; emulsifying the second phase to form an emulsion phase, wherein the emulsion phase comprises a first polymer, a basic therapeutic agent having a protonatable nitrogen, and pamoic acid; and quenching of the emulsion phase thereby forming a quenched phase; wherein quenching of the emulsion phase comprises mixing the emulsion phase with a second aqueous solution having a pH between 4 and 7, and the second aqueous solution comprises a buffering agent of sufficient concentration that the quenched phase has a pH that differs from the pH of the second aqueous solution by less than 1 pH unit.
A set for connecting a prosthetic assembly of an artificial joint, in particular a glenoidal component of a shoulder prosthesis, to a bone, the set comprising: - a prosthetic component (10, 10') comprising a bone contacting surface (14, 14') contacting the bone in an implanted state of the prosthetic component and - separate bone anchoring means (22, 22'), wherein the bone contacting surface of the prosthetic component is provided with a coupling means (16, 20, 34) adapted to be coupled to the bone anchoring means in a mounted state of the prosthetic component, characterized in that the coupling means and the bone anchoring means are adapted to achieve a snap-fit connection with each other. - a prosthetic component (10, 10') comprising a bone contacting surface (14, 14') contacting the bone in an implanted state of the prosthetic component and - separate bone anchoring means (22, 22'),
Raceway for electric wiring or other is U-shaped defined by a base and a pair of walls, which extend substantially perpendicularly from said base, so as to house electrical or other types of wiring inside of it, each wall being made in the form of a plurality of separate shaped strips separated from each other through splits and having an upright connected to said base with a free end at the top, wherein said free end of the strip at the top is bent into a hook so as to be able to engage the correspondingly arranged edge of a cover suitable for closing the raceway, said hook-shaped being defined by an attachment portion directly connected to the upright of the strip and inclined towards the inside of the raceway and by a hook connected to such an attachment portion and directed towards the outside of the raceway, the attachment portion having an outer surface and an inner surface(17"), and the hook correspondingly having a concave surface facing towards the outside and a convex surface (18") that goes from the inner surface of the attachment portion to connect to said concave surface defining the tip of the hook, characterized in that each shaped strip has a zone made from soft plastic material on at least a portion of the free end, inside and/or outside the raceway.
A therapeutic compound comprising an agent that inhibits the activity of FOXS1 gene, wherein said agent is selected from the group consisting of: anti-sense DNA or RNA, siRNA, shRNA, TALENS or ribozymes, either naked or in the form of plasmid or viral vectors, and antibodies, for use in the prevention and/or treatment of mammalian fibrosis, hypertrophic scar or keloid.
Bearing platform for a motor vehicle, including a pair of end structures which protrudingly extend, on longitudinally opposite sides, from an intermediate portion or structure which comprises a longitudinal inverted-channel formation which extends between transversely intermediate portions of said end structures, and a pair of transverse inverted-channel formations which extend on opposite sides from an intermediate portion of the longitudinal formation; characterized in that each transverse formation is connected to said end structures and the longitudinal formation by means of a platform portion, which joins at the bottom the transverse formation to the longitudinal formation, and an inclined plate portion, which joins the platform portion to the adjacent end structure.
Roof window for mounting in a roof opening of a roof, comprising a blind frame and a sash frame pivotable with respect to the blind frame, the blind frame having two parallel vertical beams (8, 9) and two horizontal beams (6, 7) which each interconnect the two vertical beams (8, 9), characterised in that installation angle brackets for fastening the roof window to a roof construction of the roof are attached at least to the vertical beams (8, 9), a support element of a support element pair being fastened to each of the vertical beams (8, 9), and in that the support elements are each formed as a support loop, holding straps of the support loops each being fastened to the corresponding one of the vertical beams (8, 9), and a distance of the support elements from an imaginary centre-of-gravity plane, which includes a centre of gravity of the roof window and is perpendicular to the vertical beams (8, 9), being selected depending on a size of the roof window in such a way that when suspended on the support elements the roof window is at a window inclination angle, corresponding to at least a roof inclination angle of the roof, as a result of a gravitational influence.
A safety needle device comprising: a housing having a proximal end and a distal end having an opening; a retractable sheath disposed and movable in the opening and surrounding a needle; the needle connected to a needle hub at the proximal end of the housing and having a needle bevel at the distal end; the retractable sheath having a sheath bevel at the distal end, the sheath bevel having an injection angle guide characterized in that the sheath bevel comprises at least two injection angle guides and includes a section of skin-engaging contact surfaces comprised of a friction enhancing material to hold skin taut prior to an injection, the sheath bevel and needle bevel being offset from each other. a housing having a proximal end and a distal end having an opening; a retractable sheath disposed and movable in the opening and surrounding a needle; the needle connected to a needle hub at the proximal end of the housing and having a needle bevel at the distal end; the retractable sheath having a sheath bevel at the distal end, the sheath bevel having an injection angle guide characterized in that the sheath bevel comprises at least two injection angle guides and includes a section of skin-engaging contact surfaces comprised of a friction enhancing material to hold skin taut prior to an injection, the sheath bevel and needle bevel being offset from each other.