mhurhangee/ep-ind-claims huggingface dataset:
A composition comprising an alpha-amylase, a pullulanase and a glucoamylase enzyme, wherein the alpha-amylase comprises or consists of an amino acid sequence selected from the group consisting of amino acid sequence, which has at least 90% sequence identity to SEQ ID NO: 5, or a mature polypeptide thereof, wherein the pullulanase comprises or consists of an amino acid sequence selected from the group consisting of amino acid sequence, which has at least 90% sequence identity to SEQ ID NO: 3, or a mature polypeptide thereof, and wherein the glucoamylase comprises or consists of an amino acid sequence selected from the group consisting of amino acid sequence, which has at least 90% sequence identity to SEQ ID NO: 4, or a mature polypeptide thereof.
A polyamide pellet comprising a polyamide including diamine units and dicarboxylic acid units, 60 to 100% by mole of the diamine units being derived from m-xylylenediamine, wherein the polyamide pellet has only one melting point peak, and wherein a spherulite density of a skin portion of the pellet being 40,000 to 250,000/mm 2, and the spherulite density is measured as follows: a polyamide pellet is cut perpendicularly to the axis direction using a microtome to expose a cross section at the center in the axis direction of the pellet as a smooth surface to prepare a sample in a block shape, and the sample obtained is put in a 10 wt% aqueous phosphorus/tungstic acid solution to stain the sample at 80°C for 8 hours; then, using an ion milling apparatus, the smooth surface is irradiated with an ion beam under conditions of an accelerated voltage of 2.5 kV, a discharge voltage of 1.5 kV, a processing time of 6 min, an irradiation angle of 30 degrees, and an eccentricity of 1.5 mm to form a damage pattern due to a morphology on the surface of the sample, and using a scanning electron microscope, the surface is observed at a magnification of 1,000; the damage pattern due to crystal is determined from an image obtained and the number of spherulites in arbitrary area of 50 μm square in each of the skin portion and the core portion is counted, and the procedure is repeated three times, whereby the spherulites density is measured; in the above measurement, a part in which 70% or more of the circumference thereof is surrounded by a line formed by the damage pattern is counted as one spherulite.
An authentication requesting apparatus based on a physically unclonable function, PUF, comprising: a signal transmission and reception unit configured to receive a first pilot signal from an authentication processing apparatus that processes authentication; a response generation unit configured to generate a challenge value based on the first pilot signal, to acquire an output value by inputting the challenge value into a PUF circuit, and to generate a response value from the output value; and an authentication request unit configured to request authentication by transmitting the response value to the authentication processing apparatus, to receive authentication result information from the authentication processing apparatus, and to determine whether authentication has been successful, the authentication requesting apparatus further comprising a channel state information estimation unit configured to estimate state information of a communication channel between the authentication requesting apparatus and the authentication processing apparatus from the first pilot signal; wherein the response generation unit generates the challenge value from the state information of the communication channel. a signal transmission and reception unit configured to receive a first pilot signal from an authentication processing apparatus that processes authentication; a response generation unit configured to generate a challenge value based on the first pilot signal, to acquire an output value by inputting the challenge value into a PUF circuit, and to generate a response value from the output value; and an authentication request unit configured to request authentication by transmitting the response value to the authentication processing apparatus, to receive authentication result information from the authentication processing apparatus, and to determine whether authentication has been successful, the authentication requesting apparatus further comprising a channel state information estimation unit configured to estimate state information of a communication channel between the authentication requesting apparatus and the authentication processing apparatus from the first pilot signal; wherein the response generation unit generates the challenge value from the state information of the communication channel.
A magnetic isolating apparatus for isolating magnetic particles from a suspension, having a soft-magnetic tip whose magnetization state is selectably changeable between a more strongly magnetized state and a more weakly magnetized state; the tip comprising an immersion end for introduction into the suspension and a magnetization portion for changing the magnetization state of the tip; the isolating apparatus comprising a first magnet arrangement whose magnetic field in the magnetization portion of the tip is modifiable over time in order to change its magnetization state; characterized in that the isolating apparatus encompasses a second magnet arrangement; the first and the second magnet arrangement being displaceable relative to one another, and the magnetization state of the soft-magnetic tip being dependent on the relative position of the two magnet arrangements (122, 130); the first magnet arrangement being stationary relative to the soft-magnetic tip and the second magnet arrangement being movable relative to the tip and to the first magnet arrangement; the first magnet arrangement, constituting a magnetization magnet arrangement, encompassing at least one permanent magnet and being continuously in magnetically engaged contact with the soft-magnetic tip; and the second magnet arrangement, constituting a switching magnet arrangement, encompassing at least one permanent magnet and being displaceable between a switch-off position in which it more strongly weakens, with its switching magnetic field, the magnetization magnetic field of the magnetization magnet arrangement in the region of the magnetization portion, and a switch-on position in which it less strongly weakens, with its switching magnetic field, the magnetization magnetic field of the magnetization magnet arrangement in the region of the magnetization portion.
A power transmission system (100; 800) comprising: an HVDC power line (106; 806); a first unit (102; 802) adapted to receive high voltage direct current (HVDC) power from the HVDC power line, or transmit HVDC power on the HVDC power line, wherein the first unit (102; 802) includes a first alternating current source that generates an AC component indicative of a status of the first unit (102; 802) and adds the AC component to the HVDC power line (106; 806); and a second unit (104; 804) adapted to generate a direct current voltage to transfer the HVDC power on the HVDC power line, or receive the HVDC power from the HVDC power line, wherein the HVDC power line (106; 806) is coupled between the first unit (102; 802) and the second unit (104; 804); wherein the second unit (104; 804) includes a second AC source that generates a compensatory AC component and adds the compensatory AC component to the HVDC power line to eliminate the added AC component in the HVDC power line, the compensatory AC component having the same frequency and amplitude as the added AC component, but with an opposite phase; and wherein the second unit (104; 804) includes (i) means for detecting a presence or an absence of the added AC component in the HVDC power line (106; 806) and determining the status of the first unit (102; 802) based on the added AC component, or (ii) means for determining the status of the first unit (102; 802) based on the generated compensatory AC component, optionally by identifying at least one of the frequency, amplitude and phase of the compensatory AC component. an HVDC power line (106; 806); a first unit (102; 802) adapted to receive high voltage direct current (HVDC) power from the HVDC power line, or transmit HVDC power on the HVDC power line, wherein the first unit (102; 802) includes a first alternating current source that generates an AC component indicative of a status of the first unit (102; 802) and adds the AC component to the HVDC power line (106; 806); and a second unit (104; 804) adapted to generate a direct current voltage to transfer the HVDC power on the HVDC power line, or receive the HVDC power from the HVDC power line, wherein the HVDC power line (106; 806) is coupled between the first unit (102; 802) and the second unit (104; 804); wherein the second unit (104; 804) includes a second AC source that generates a compensatory AC component and adds the compensatory AC component to the HVDC power line to eliminate the added AC component in the HVDC power line, the compensatory AC component having the same frequency and amplitude as the added AC component, but with an opposite phase; and wherein the second unit (104; 804) includes (i) means for detecting a presence or an absence of the added AC component in the HVDC power line (106; 806) and determining the status of the first unit (102; 802) based on the added AC component, or (ii) means for determining the status of the first unit (102; 802) based on the generated compensatory AC component, optionally by identifying at least one of the frequency, amplitude and phase of the compensatory AC component.
Registration system for controlling labelling in units of the type having optical sensing means for reading a label surface of a label film, encoding means for providing to the system an information of the position of the label film transported, motor means for controlling the speed of advancement of the label film, and a computing and control system integrated in a computer that controls the functioning of the labelling machine, wherein the optical sensing means, the encoding means and motor means are connected to the computing and control system, characterized in that the computing and control system or the sensing means comprises a computing and control unit, and that the registration system is configured to perform the following steps: - reading a test label in the label film and determining which part of the printed matter of the test label in the label film has maximum measure of signal-to-noise ratio or contrast to constitute a reference region; - reading a subsequent processing label of the label film and - identifying a processing region of the subsequent processing label of the label film; - comparing corresponding points of said processing region with said reference region and - computing a length of the processing label as the distance between corresponding points of the said processing region and of the reference region of the test label, and which distance is indicative of the length of the processing label; - reading each of the subsequent processing labels in an iterative manner, and identifying a processing region in said label under examination by comparing it with said reference region, and computing a length of the processing label under examination as the distance between the said processing region and the processing region of the immediately preceding processing label; and - controlling an operation of the labelling machine as a function of the distance indicative of the label length computed in the previous step. - reading a test label in the label film and determining which part of the printed matter of the test label in the label film has maximum measure of signal-to-noise ratio or contrast to constitute a reference region; - reading a subsequent processing label of the label film and - identifying a processing region of the subsequent processing label of the label film; - comparing corresponding points of said processing region with said reference region and - computing a length of the processing label as the distance between corresponding points of the said processing region and of the reference region of the test label, and which distance is indicative of the length of the processing label; - reading each of the subsequent processing labels in an iterative manner, and identifying a processing region in said label under examination by comparing it with said reference region, and computing a length of the processing label under examination as the distance between the said processing region and the processing region of the immediately preceding processing label; and - controlling an operation of the labelling machine as a function of the distance indicative of the label length computed in the previous step.
A vitroceramic composition characterized in that it is selected from the group consisting of: • a composition consisting in molar percentages of: - 36 to 43% of SiO 2, preferably 36 to 42% of SiO 2; - 9 to 13% of Al 2 O3, preferably 9 to 12% of Al 2 O 3; - 38 to 50% of CaO; and of one or several additional oxide(s) selected from the following oxides in the following molar percentages: - 4 to 5% of ZnO; - 2 to 9% of MnO 2; - 2 to 6% of B 2 O 3; - 2 to 4% of TiO 2; • and a composition consisting in molar percentages of 37.74%of SiO 2; 9.43% of Al 2 O 3; 47.17% of CaO; 4.72% of MnO 2 and 0.94% of Cr 2 O 3. • a composition consisting in molar percentages of: - 36 to 43% of SiO 2, preferably 36 to 42% of SiO 2; - 9 to 13% of Al 2 O3, preferably 9 to 12% of Al 2 O 3; - 38 to 50% of CaO; and of one or several additional oxide(s) selected from the following oxides in the following molar percentages: - 4 to 5% of ZnO; - 2 to 9% of MnO 2; - 2 to 6% of B 2 O 3; - 2 to 4% of TiO 2; - 36 to 43% of SiO 2, preferably 36 to 42% of SiO 2; - 9 to 13% of Al 2 O3, preferably 9 to 12% of Al 2 O 3; - 38 to 50% of CaO; and of one or several additional oxide(s) selected from the following oxides in the following molar percentages: - 4 to 5% of ZnO; - 2 to 9% of MnO 2; - 2 to 6% of B 2 O 3; - 2 to 4% of TiO 2; • and a composition consisting in molar percentages of 37.74%of SiO 2; 9.43% of Al 2 O 3; 47.17% of CaO; 4.72% of MnO 2 and 0.94% of Cr 2 O 3.
Method for detecting a broken binder in an access network comprising a plurality of telecommunication lines grouped in respective binders, executed by a detection device, comprising: - identifying a plurality of telecommunication lines (L i) for which a transmission interruption has been detected within a given time period, - obtaining line data (D i) associated with the respective identified telecommunication lines (L i), - for respective pairs of identified telecommunication lines, determining a virtual distance (d ij) between the two telecommunication lines, in function of the associated line data, - determining at least one cluster of telecommunication lines in function of the virtual distances (d ij), and - detecting a broken binder in function of the determined at least one cluster. - identifying a plurality of telecommunication lines (L i) for which a transmission interruption has been detected within a given time period, - obtaining line data (D i) associated with the respective identified telecommunication lines (L i), - for respective pairs of identified telecommunication lines, determining a virtual distance (d ij) between the two telecommunication lines, in function of the associated line data, - determining at least one cluster of telecommunication lines in function of the virtual distances (d ij), and - detecting a broken binder in function of the determined at least one cluster.
A textile composite comprising a) a meltable layer; b) a heat reactive material comprising: a polymer resin comprising an aqueous acrylic resin, expandable graphite, at least one flame retardant additive, and at least one polyhydroxy compound; c) an additional layer disposed on the heat reactive material so that the heat reactive material is between the meltable layer and the additional layer; wherein the textile composite has an afterflame of less than about 2 seconds. a) a meltable layer; b) a heat reactive material comprising: a polymer resin comprising an aqueous acrylic resin, expandable graphite, at least one flame retardant additive, and at least one polyhydroxy compound; a polymer resin comprising an aqueous acrylic resin, expandable graphite, at least one flame retardant additive, and at least one polyhydroxy compound; c) an additional layer disposed on the heat reactive material so that the heat reactive material is between the meltable layer and the additional layer;
A moving head light fixture, comprising: ∘ a base, ∘ a yoke rotatable connected to said base, ∘ a head rotatable connected to said yoke, said head comprises at least one light source generating a light beam, ∘ light effect means adapted to modify said light beam, ∘ first rotating means for rotating said yoke in relation to said base, ∘ second rotating means for rotating said head in relation to said yoke, ∘ controlling means adapted to control said light effect means based on an input signal, said input signal indicative of at least one light effect parameter, ∘ controlling means adapted to control said at least said first rotating means or said second rotating means based on said input signal, said input signal being further indicative of at least one position parameter, said position parameter is indicative of at least a position of said yoke in relation to said base or a position of said head in relation to said yoke, characterized in that said moving head light fixture further comprises switching means for switching said moving head light fixture between a normal mode of operation and a follow spot mode of operation where at least said first rotating means or said second rotating means are deactivated while said controlling means adapted to control said light effect means remains at least partially activated. ∘ a base, ∘ a yoke rotatable connected to said base, ∘ a head rotatable connected to said yoke, said head comprises at least one light source generating a light beam, ∘ light effect means adapted to modify said light beam, ∘ first rotating means for rotating said yoke in relation to said base, ∘ second rotating means for rotating said head in relation to said yoke, ∘ controlling means adapted to control said light effect means based on an input signal, said input signal indicative of at least one light effect parameter, ∘ controlling means adapted to control said at least said first rotating means or said second rotating means based on said input signal, said input signal being further indicative of at least one position parameter, said position parameter is indicative of at least a position of said yoke in relation to said base or a position of said head in relation to said yoke, characterized in that said moving head light fixture further comprises switching means for switching said moving head light fixture between a normal mode of operation and a follow spot mode of operation where at least said first rotating means or said second rotating means are deactivated while said controlling means adapted to control said light effect means remains at least partially activated.
Method for mixing biphasic compounds, comprising a mixer comprising a chamber for containing a solid phase and a cartridge containing a phial of a liquid phase, wherein said phial is of the breakable type, said chamber and said cartridge being able to communicate through respective channels (19, 20), wherein said cartridge comprises an external casing made in a deformable and elastic material and has an internal volume greater than the volume taken up by said phial, comprising the following steps: break said phial from the outside on a breaking point, squeeze the external casing to pump and transfer said liquid phase inside said chamber through said channels (19, 20). break said phial from the outside on a breaking point, squeeze the external casing to pump and transfer said liquid phase inside said chamber through said channels (19, 20).
A transformed oleaginous yeast comprising heterologous genes encoding enzymes of the ω-3 fatty acid biosynthetic pathway, wherein the yeast is an oleaginous Yarrowia lipolytica that accumulates at least 25% of its dry cell weight as oil, wherein the heterologous genes encode Δ17 desaturase, Δ5 desaturase and elongase enzymes of the ω-3 fatty acid biosynthetic pathway wherein the oleaginous Yarrowia lipolytica produces substrates for the enzymes, and wherein said yeast is capable of producing ω-3 polyunsaturated fatty acids that are not naturally produced by said yeast.
A multiple loudspeaker device comprising a frame with a first loudspeaker for reproducing sound in a higher frequency range and a second loudspeaker for reproducing sound in a lower frequency range, the frequency ranges having a crossover frequency f c, which first loudspeaker has a first radiation surface of maximal 1000 mm 2 and which second loudspeaker has a second radiation surface, a central area of the first radiation surface and a central area of the second radiation surface being situated at a distance d, being a vertical distance, from each other, wherein 750 Hz ≤ f c ≤ 3000 Hz, characterized in that: d ≥ 2.λ f c, wherein λ f c is the wavelength of the reproduced sound at the crossover frequency, and wherein d is minimal 750 mm and maximal 3000 mm. d ≥ 2.λ f c, wherein λ f c is the wavelength of the reproduced sound at the crossover frequency, and wherein d is minimal 750 mm and maximal 3000 mm.
An implantable apparatus for providing tumor treating fields, TTFields, to a target site of a subject, the apparatus comprising: a support structure; and at least one electrode array (104; 104a-f) disposed on the support structure, characterized in that the at least one electrode array (104; 104a-f) comprises a central electrode and a plurality of circumferential electrodes spaced around the central electrode, with the central electrode and one or more of the circumferential electrodes being configured to be activated in sequence or randomly by an electric potential to provide tumor treating fields of changing orientation through the target site of the subject. a support structure; and at least one electrode array (104; 104a-f) disposed on the support structure, characterized in that the at least one electrode array (104; 104a-f) comprises a central electrode and a plurality of circumferential electrodes spaced around the central electrode, with the central electrode and one or more of the circumferential electrodes being configured to be activated in sequence or randomly by an electric potential to provide tumor treating fields of changing orientation through the target site of the subject.