mhurhangee/ep-ind-claims huggingface dataset:
A baking device comprising at least two baking ovens (03.1, 03.2) which comprise a closable feed opening arranged on a front side and at least two burner openings arranged on the rear side and at least one flue gas opening, and comprising at least four wood-burning devices (11.1a, 11.1b, 11.2a, 11.2b) which have an oxidation zone, in which the wood fuel can be proportionately burnt, and a reduction zone, in which the wood fuel can be proportionately converted to fuel gas, and a burning zone engaging through the burner opening, in which burning zone fuel gas can be proportionately burnt, an air supply being connected to each zone, characterized in that a central air conveyor unit is used, which is connected to the air supplies of the multiple wood-burning devices via air ducts, a throttle element controlled by a motor of a central baking control being arranged between each of the air ducts and the air supplies.
A method for separating a first hydrophilic neutral oligosaccharide from a second hydrophilic neutral oligosaccharide comprising subjecting an aqueous solution comprising the first and the second oligosaccharide to chromatography on a bromine functionalized polystyrene cross-linked with divinylbenzene (BPS-DVB) stationary medium, characterized in that the number of the monosaccharide units in one of the oligosaccharides (higher oligosaccharide) is higher than that in the other oligosaccharide (lower oligosaccharide), and wherein both of the oligosaccharides comprise a GIcNAc- or GalNAc-moiety.
Method for hanging garments into clips of transport systems having a loading point or a plurality of adjacent loading points in laundrettes or laundrette machines, wherein a portion of the respective garment is placed into the respective clip by at least one operator (14, 19) at the, or at the respective, loading point, characterized in that an orientation for hanging the relevant garment into the clip is given to or specified for the operator (14, 19) by way of at least one light-emitting means that is assigned to the respective clip indirectly in the vicinity thereof and at a fixed location, the respective clip is lit by the at least one light-emitting means, and the direction in which the particular portion of the respective garment should be inserted into a clip jaw of the particular clip is indicated to the respective operator (14, 19), and in that a plurality of light-emitting means are assigned to the respective clip, wherein by activation of selected light-emitting means only one or some light-emitting means generate light, as a result of which the direction in which or where the garment should be inserted by the operator (14, 19) into the clip is visually presented to the operator (14, 19).
Machine for additive manufacturing by powder bed deposition, the machine comprising a work top, a work area (20, 120), a device (29, 129) for depositing a layer of powder onto the work area and a heat or energy source used to selectively consolidate a layer of powder deposited onto the work area, the device for depositing a layer of powder comprising a movable element (28, 128) for receiving powder moving relative to the work top and in the vicinity of the work area, a device (32, 132) for dispensing a bead of powder onto the movable element and a device for spreading the bead of powder from the movable element towards the work area, the additive manufacturing machine is characterized in that the movable element assumes the form of a slide mounted to translationally move in a transverse horizontal direction relative to the work area and moving between a retracted position, in which said slide is located outside the trajectory of the powder spreading device, and a deployed position, in which said slide at least partly extends into the trajectory of the powder spreading device or the movable element externally surrounding the work area over its entire circumference and rotationally moving around the work area, at least part of the upper surface (S28, S128) of said movable element is located above the upper surface of the work top and/or at least part of the upper surface (S28, S128) of said movable element is located below the upper surface of the work top, machine for additive manufacturing wherein at least part of the upper surface of said movable element is located in the extension of the upper surface of the work top, and wherein this movable element also comprises at least one raised form rising above its upper surface and/or at least one recessed form extending below its upper surface.
A cold breathing gas delivery system, comprising; a delivery device (102, 302, 402, 502) having an exit port at a distal end thereof, adapted to deliver a cooled breathing gas mixture (103, 303, 403, 503) to a patient; and an injection device (104, 204, 330, 544) positioned at or near the distal end or exit port _of the delivery device characterised in that the injection device is configured to release a fluid to form a frozen mist of fine ice particles into the cooled breathing gas mixture when the breathing gas mixture is carried by the delivery device (102, 302, 402, 502) and wherein the delivery device (102, 302, 402, 502) is a breathing mask or an endotracheal tube sized for insertion into an airway of a patient.
A method of preparing ceramic nanoparticles loaded with one or more photosensitive drugs comprising the steps of: a) preparing micelles entrapping the photosensitive drugs; b) adding alkoxyorganosilane to the micelles to form complexes of silica and the micelles; c) subjecting the complexes of silica and micelles to alkaline hydrolysis to precipitate silica nanoparticles in which the photosensitive drug molecules are entrapped; and d) isolating the precipitated nanoparticles by dialysis. a) preparing micelles entrapping the photosensitive drugs; b) adding alkoxyorganosilane to the micelles to form complexes of silica and the micelles; c) subjecting the complexes of silica and micelles to alkaline hydrolysis to precipitate silica nanoparticles in which the photosensitive drug molecules are entrapped; and d) isolating the precipitated nanoparticles by dialysis.
Method for the fine adjustment of the rate of a mechanical horological oscillator including at least one inertial mass, for example but not restricted to: a balance, arranged to oscillate about an axis of rotation and returned to a rest position by elastic return means, characterised in that, in a first step, said oscillator is equipped with at least one inertial mass including an actuator in a material suitable for irreversible local micro-expansion under the effect of laser fires, said actuator being arranged to impart to an inertia-block a radial linear travel with respect to the axis of rotation, directly or by means of at least one travel amplifier, when a writing zone (39; 391; 392), included in the actuator is subjected to suitable laser fires, in a second step, a first rough setting of the initial rate of said oscillator is performed in a first rate range and said rate is measured, in a third step, the direction and the value of the rate deviation to be imparted to said oscillator are calculated to bring it into a predetermined second rate range, and the direction and the value of the travel to be imparted to each said inertia-block included in said oscillator are calculated, in a fourth step, at least one said writing zone (39; 391; 392) is subjected to femtosecond laser fires to create at least one expansion line by local molecular expansion of said material to deform said actuator radially with respect to said axis of rotation, in a fifth step, the rate of said oscillator is measured, and if required said third step and said fourth step are repeated until the rate of said oscillator is within said second rate range.
A combustion engine with at least one piston which performs stroke movements in a cylinder crankcase and corporates with two parallel crankshafts (13, 14) synchronously rotating in opposite directions by means of two piston rods (11, 12), wherein the piston rods (11, 12) comprise bearing lugs (19, 20) on a side facing a piston bottom of the piston, the bearing lugs operatively connected with first and second bearings (25, 26) provided on opposite sides (external sides 23, 24) of the piston by means of two piston bolts (21, 22), which bearings (25, 26) and piston bolts (23, 24) function as a device for compensating an asymmetry of the course of the crankshafts (23, 24), characterized in that the first and second bearings (25 and 26) include cylindrical bearing disks (28 and 29) for the device which, on one side, are rotatably supported in piston bores (30 and 31) and, on the other side, include disk bores (32, 33 and 34, 35) for receiving first and second bolt portions (36, 37 and 38, 39) of the piston bolts (21, 22), wherein a diameter Du1 of the first bolt portion (36; 38) is greater than a diameter of the second bolt portion (37; 39) of the respective piston bolt (21, 22), and in that between the first bolt portion (36; 38) and the second bolt portion (37; 39) a stage with a collar formed as a stop is provided, the collar supported on an inner side of one of the two bearing disks (28, 29).
A method of determining operational limits for a wind turbine, comprising: determining a characteristic indicative of the air density; determining a cut-in wind speed depending on the determined air density characteristic; characterized by further comprising: determining a characteristic indicative of the loads on the wind turbine accumulated over time; and determining a cut-out wind speed depending on the determined air density characteristic and on the characteristic indicative of the loads accumulated over time. determining a characteristic indicative of the air density; determining a cut-in wind speed depending on the determined air density characteristic; characterized by further comprising: determining a characteristic indicative of the loads on the wind turbine accumulated over time; and determining a cut-out wind speed depending on the determined air density characteristic and on the characteristic indicative of the loads accumulated over time. determining a characteristic indicative of the loads on the wind turbine accumulated over time; and determining a cut-out wind speed depending on the determined air density characteristic and on the characteristic indicative of the loads accumulated over time.
A coated cutting tool comprising a substrate and a coating, wherein the coating comprises at least one layer of α-Al 2 O 3 with a thickness of 1-20 μm deposited by chemical vapour deposition, wherein said α-Al 2 O 3 layer exhibits an X-ray diffraction pattern, wherein a texture coefficient TC (h k l) is defined according to Harris formula TC h k l = I hkl I 0 hkl 1 n ∑ i = 0 n I hkl I 0 hkl − 1 wherein the (h k l) reflections used are (10 4),, (1 1 3), (0 2 4),, (2 1 4), and (0 0 12), I(h k l) = measured intensity of the (h k l) reflection, l 0 (h k l) = standard intensity according to ICDD's PDF-card No. 00-10-0173, n = 8, characterized in that 1<TC(0 2 4)<4 and 3<TC(0 0 12)<6. I(h k l) = measured intensity of the (h k l) reflection, l 0 (h k l) = standard intensity according to ICDD's PDF-card No. 00-10-0173, n = 8, characterized in that 1<TC(0 2 4)<4 and 3<TC(0 0 12)<6.
A cane comprising a tube defining a first aperture and a second aperture spaced in a side thereof and being larger in diameter than the first aperture; an extension rod telescopically mounted within one end of the tube and defining a plurality of holes in a side thereof; and a control mechanism, wherein the control mechanism is disposed in between an inner wall of the tube and an outer wall of the extension rod, and is movable to a first position where the control mechanism has a first end laterally engaged in the first aperture in the tube and a second end laterally engaged in the selected hole in the extension rod such that the tube, the extension rod and the control mechanism are prohibited from moving axially with respect to one another; a second position where the first end of the control mechanism is withdrawn from the first aperture in the tube such that the extension rod and the control mechanism together are allowed to move axially with respect to the tube, the control mechanism being movable laterally from the first position to the second position; and a third position where the first end of the control mechanism is engaged in the second aperture of the tube and the second end of the control mechanism is withdrawn from the selected hole such that the extension rod is allowed to move axially with respect to the control mechanism and the tube; wherein the control mechanism together with the extension rod is axially movable from the second position to a transition position to permit the control mechanism laterally moving to the third position, wherein the control mechanism includes a carrier having a transverse bore and sandwiched between the inner wall of the tube and the outer wall of the extension rod, a button seated in the carrier, and a spring disposed in the carrier for normally biasing the button toward the inner wall of the tube; characterized in that the button consists of a head and a pin, wherein the head is configured to be at least partly received in the first aperture in the tube, the head having a stepped shape with a first outer shoulder and a second larger shoulder, and the pin has one end joined to the head and the other end extending through the transverse bore in the carrier, the spring being mounted about the pin and interposed between the carrier and the head, such that when the control mechanism is in the first position, the other end of the pin of the button is engaged in the selected hole in the extension rod and the head of the button is partly engaged in the first aperture in the tube with the first outer shoulder abutting against the inner wall of the tube; and when the control mechanism is in the third position, the head of the button is partly engaged in the second aperture in the tube with the second enlarged shoulder abutting against the inner wall of the tube.
An implantable device comprising a textile component at least partially coated with a host polymer coating, said host polymer coating comprising a polymer of cyclodextrin(s) and/or derivatives of cyclodextrin(s) and/or inclusion complex(es) of cyclodextrin and/or inclusion complex(es) of cyclodextrin derivatives, characterized in that said textile component comprises multifilament yarns and/or spun yarns made of fibers and in that at least a part of the filaments and/or fibers each have a diameter of less than or equal to 25 micrometers.
A resilient hinge device for connecting each of the arms to a front frame of spectacles in an articulated way, comprising: - a tie bar, one extremity of which is attached to the front frame and stands erect from the frame in the longitudinal direction adopted by the arm in its open position with respect to the front frame, the opposite axial extremity of the tie bar being articulated to an end portion of the arm facing the front frame about a hinge axis, - a resilient member including a body of substantially U-shaped sheet metal with a pair of opposite surface portions (10a, 10b) facing each other and connected to an end member, the resilient member being fitted onto the tie bar through through-openings (11a, 11b) made in each of the surface portions (10a, 10b) of that body so that it remains located between the front frame and the end portion of the arm articulated to the tie bar, one of the surface portions of the resilient member being in supporting contact against the front frame and the other surface portion of the resilient member being in contact with the end portion of the arm to resiliently stress the arm towards preselected angular positions with respect to the front frame when the arm is rotated about the hinge axis, these angular positions including a position in which the arm is open, suitable for wearing of the spectacles, and a closed position of the arm folded back against the front frame and to return the arm to the open position when rotated beyond that position when opened too far with respect to the frame, characterized in comprising a stop member located between the mutually-facing surface portions (10a, 10b) of resilient member, the stop member having a through hole housing the tie bar, such that the stop member is held between the surface portions (10a, 10b) of the resilient member, and acts as means restricting the resilient deformation induced by the arm in the resilient member when the arm is rotated about the hinge axis. - a tie bar, one extremity of which is attached to the front frame and stands erect from the frame in the longitudinal direction adopted by the arm in its open position with respect to the front frame, the opposite axial extremity of the tie bar being articulated to an end portion of the arm facing the front frame about a hinge axis, - a resilient member including a body of substantially U-shaped sheet metal with a pair of opposite surface portions (10a, 10b) facing each other and connected to an end member, the resilient member being fitted onto the tie bar through through-openings (11a, 11b) made in each of the surface portions (10a, 10b) of that body so that it remains located between the front frame and the end portion of the arm articulated to the tie bar,
A method for preparing a composite ultra-high molecular weight polyethylene fiber, comprising: Preparing a glass fiber premix: dispersing glass fiber in a first white oil to obtain the glass fiber premix; Preparing a graphene slurry premix: grinding graphene slurry, filtering, then adding the filter residue to a second white oil, and then adding a first UHMWPE to the second white oil containing the graphene filter residue, heating the premix to 80 °C to 90 °C, and after the same was not bubbled, raising temperature to 135 °C to 170 °C, and maintaining for 2.5 h to 4.5 h; Preparing a spinning mixture: mixing the glass fiber premix, the graphene slurry premix, a second UHMWPE, an antioxidant, and a third white oil to obtain the spinning mixture; Swelling and mixing the spinning mixture to form a molten state; Extruding the spinning mixture which is in the molten state; Cooling to form a gel-spun; and Obtaining the composite ultra-high molecular weight polyethylene fiber from the gel-spun. Preparing a glass fiber premix: dispersing glass fiber in a first white oil to obtain the glass fiber premix; Preparing a graphene slurry premix: grinding graphene slurry, filtering, then adding the filter residue to a second white oil, and then adding a first UHMWPE to the second white oil containing the graphene filter residue, heating the premix to 80 °C to 90 °C, and after the same was not bubbled, raising temperature to 135 °C to 170 °C, and maintaining for 2.5 h to 4.5 h; Preparing a spinning mixture: mixing the glass fiber premix, the graphene slurry premix, a second UHMWPE, an antioxidant, and a third white oil to obtain the spinning mixture; Swelling and mixing the spinning mixture to form a molten state; Extruding the spinning mixture which is in the molten state; Cooling to form a gel-spun; and Obtaining the composite ultra-high molecular weight polyethylene fiber from the gel-spun.
A silicon device, comprising: a silicon wafer bounded by a first surface and a second opposite said first surface, said silicon wafer having a device fabricated on said second surface; said silicon wafer having a doping profile situated adjacent on said first surface, said doping profile having a plurality of M doped layers; each of plurality of M doped layers having a thickness of less than 1.0 nm, and a dopant sheet density of at least 10 14 cm -2, where M is an integer greater than 1; said plurality of M doped layers separated from each other by a respective one of M-1 interleaved layers of silicon, at least one of said M-1 interleaved layers of silicon having a dopant sheet density lower than 10 13 cm -2 and a thickness in the range of 1.0 nm to 3.0 nm; so that said silicon wafer has said first surface electronically passivated. a silicon wafer bounded by a first surface and a second opposite said first surface, said silicon wafer having a device fabricated on said second surface; said silicon wafer having a doping profile situated adjacent on said first surface, said doping profile having a plurality of M doped layers; each of plurality of M doped layers having a thickness of less than 1.0 nm, and a dopant sheet density of at least 10 14 cm -2, where M is an integer greater than 1; said plurality of M doped layers separated from each other by a respective one of M-1 interleaved layers of silicon, at least one of said M-1 interleaved layers of silicon having a dopant sheet density lower than 10 13 cm -2 and a thickness in the range of 1.0 nm to 3.0 nm; so that said silicon wafer has said first surface electronically passivated.
A computer-implemented method for authentication of a first device, comprising the following steps: A) receiving a plurality of RF signals (SG1, SG2,...) from the first device; B) acquiring feature data from the received RF signals (SG1, SG2,...), C) fitting a model for authenticating said first device using the acquired feature data; D) storing in memory the fitted model in a second device; E) by the second device, receiving a new RF signal (SG(t)) from a device to authenticate, F) by the second device, acquiring feature data from the new RF signal (SG(t)), and G) by the second device, determining whether or not the device to authenticate is the first device by transmitting the feature data, acquired from the new RF signal (SG(t)), as input to the fitted model; wherein the feature data acquired from each RF signal includes values of only one of an in-phase component I(t) of said RF signal over time and a quadrature component Q(t) of the RF signal over time. A) receiving a plurality of RF signals (SG1, SG2,...) from the first device; B) acquiring feature data from the received RF signals (SG1, SG2,...), C) fitting a model for authenticating said first device using the acquired feature data; D) storing in memory the fitted model in a second device; E) by the second device, receiving a new RF signal (SG(t)) from a device to authenticate, F) by the second device, acquiring feature data from the new RF signal (SG(t)), and G) by the second device, determining whether or not the device to authenticate is the first device by transmitting the feature data, acquired from the new RF signal (SG(t)), as input to the fitted model;