mhurhangee/ep-ind-claims huggingface dataset:
A photochromic-dichroic article comprising: (a) a substrate having a first surface and a second surface; (b) a first photochromic-dichroic layer positioned over said first surface of said substrate, said first photochromic-dichroic layer comprising a first photochromic-dichroic compound, said first photochromic-dichroic compound being laterally aligned within said first photochromic-dichroic layer and defining a first polarization axis of said first photochromic-dichroic layer; and (c) a second photochromic-dichroic layer positioned over said first photochromic-dichroic layer, said second photochromic-dichroic layer comprising a second photochromic-dichroic compound, said second photochromic-dichroic compound being laterally aligned within said second photochromic-dichroic layer and defining a second polarization axis of said second photochromic-dichroic layer, wherein said first polarization axis and said second polarization axis are oriented relative to each other at an angle of from 25° to 90°. (a) a substrate having a first surface and a second surface; (b) a first photochromic-dichroic layer positioned over said first surface of said substrate, said first photochromic-dichroic layer comprising a first photochromic-dichroic compound, said first photochromic-dichroic compound being laterally aligned within said first photochromic-dichroic layer and defining a first polarization axis of said first photochromic-dichroic layer; and (c) a second photochromic-dichroic layer positioned over said first photochromic-dichroic layer, said second photochromic-dichroic layer comprising a second photochromic-dichroic compound, said second photochromic-dichroic compound being laterally aligned within said second photochromic-dichroic layer and defining a second polarization axis of said second photochromic-dichroic layer,
A component for installation in a wall, comprising an insert module with a housing, a front plate being attached to the housing and a first engaging behind structure; and a holding frame being attachable in the wall with a first retention element and with a side wall (201, 202, 203), which delimits an interior space for receiving the housing of the insert module; wherein the first engaging behind structure and the first retention element are configured and arranged such, that the first retention element serves the purpose of holding the first engaging behind structure, such that in an installed state of the component the first engaging behind structure and the first retention element jointly prevent a movement of the insert module relative to the holding frame in a direction being substantially perpendicular to the wall surface, characterized in that the component further comprises at least one snap element, which is configured as a hook-shaped spring arm at the insert module or at the holding frame, that comprises a catch hook for snapping at a corresponding snapping structure of the holding frame or of the insert module, respectively, such that in the installed state of the component the snap element and the snapping structure jointly prevent a movement of the insert module relative to the holding frame in a direction extending substantially parallel to the wall surface, and that the first retention element is a tap, which extends perpendicularly from the side wall (201, 202, 203) into the interior space.
A horological movement comprising: - A plate; - A mechanical resonator comprising: • An oscillating balance rotatably mounted relative to the plate about an axis, this balance having an upper face and a lower face, and • A spiral spring coupled to the balance, this spiral spring having a first end fixed relative to the plate and a second end secured to the balance; - An electromagnetic regulator coupled to the mechanical resonator to regulate the frequency of the balance oscillations, this electromagnetic regulator comprising: • At least one permanent magnet, • At least one coil, • A quartz or silicon resonator and • An electronic circuit connected to the resonator and to the coil; This movement being characterised in that: - The magnet is fixedly mounted relative to the plate; - The coil, the resonator and the electronic circuit are mounted on the balance while being completely included in at least one inner cavity delimited by the latter. - A plate; - A mechanical resonator comprising: • An oscillating balance rotatably mounted relative to the plate about an axis, this balance having an upper face and a lower face, and • A spiral spring coupled to the balance, this spiral spring having a first end fixed relative to the plate and a second end secured to the balance; • An oscillating balance rotatably mounted relative to the plate about an axis, this balance having an upper face and a lower face, and • A spiral spring coupled to the balance, this spiral spring having a first end fixed relative to the plate and a second end secured to the balance; - An electromagnetic regulator coupled to the mechanical resonator to regulate the frequency of the balance oscillations, this electromagnetic regulator comprising: • At least one permanent magnet, • At least one coil, • A quartz or silicon resonator and • An electronic circuit connected to the resonator and to the coil; • At least one permanent magnet, • At least one coil, • A quartz or silicon resonator and • An electronic circuit connected to the resonator and to the coil; - The magnet is fixedly mounted relative to the plate; - The coil, the resonator and the electronic circuit are mounted on the balance while being completely included in at least one inner cavity delimited by the latter.
A transverse welding device for a flow-pack packaging machine, comprising: - a stationary support structure, - a pair of welding shafts (18, 20) rotatably carried by the support structure about respective axes (A, B) parallel to each other, - a pair of torque motors (26, 28), and - a pair of cardan shafts (34, 36) each of which has a first end directly fixed to the rotor (38, 40) of a respective torque motor (26, 28) and a second end directly fixed to a respective welding shaft (18, 20). - a stationary support structure, - a pair of welding shafts (18, 20) rotatably carried by the support structure about respective axes (A, B) parallel to each other, - a pair of torque motors (26, 28), and - a pair of cardan shafts (34, 36) each of which has a first end directly fixed to the rotor (38, 40) of a respective torque motor (26, 28) and a second end directly fixed to a respective welding shaft (18, 20).
A laundry treating apparatus comprising a tub, a drum rotatably mounted inside the tub, at least one electric element (200, 61) mounted in the drum, a wireless power transmitter unit and a wireless power receiver unit, wherein the wireless power receiver unit supplies power to the at least one electric element (200, 61), wherein the power transmitter unit and the power receiver unit are positioned one opposite to the other, fixed respectively to the tub and to the drum, being mounted radially parallel in radial direction respectively on the tub and on the drum and centered with the drum center, characterized in that the power transmitter unit and the power receiver unit are annular shaped.
An isolated, synthetic or recombinant antibody or a functional part thereof which is capable of specifically binding Respiratory Syncytial Virus F protein and which comprises: a heavy chain complementarity determining region 1 sequence comprising the sequence KLSIH, a heavy chain CDR2 sequence comprising the sequence GYEGEVDEIFYAQKFQH, a heavy chain CDR3 sequence comprising the sequence LGVTVTEAGLGIDDY, a light chain CDR1 sequence comprising the sequence RASQIVSRNHLA, a light chain CDR2 sequence comprising the sequence GASSRAT, and a light chain CDR3 sequence comprising the sequence LSSDSSI. a heavy chain complementarity determining region 1 sequence comprising the sequence KLSIH, a heavy chain CDR2 sequence comprising the sequence GYEGEVDEIFYAQKFQH, a heavy chain CDR3 sequence comprising the sequence LGVTVTEAGLGIDDY, a light chain CDR1 sequence comprising the sequence RASQIVSRNHLA, a light chain CDR2 sequence comprising the sequence GASSRAT, and a light chain CDR3 sequence comprising the sequence LSSDSSI.
A coating composition comprising: 20 to 40 weight % of a silicone rubber, 1 to 3 weight % of a thermal conductive filler, 0.5 to 1 weight % of a polysiloxane having the Formula R 1 3 Si(OSiMe 2) m OSiR 2 r R 3 (3-r) Formula wherein Me is a methyl group, R 1 and R 3 are independently an alkyl group having 1 to 4 carbon atoms, R 2 is a group selected from hydroxyl group, an alkoxy group having 1 to 3 carbon atoms, a vinyl group and a hydrogen atom, r is a number from 1 to 3, m is a number from 30 to 100, 0.1 to 2 weight % of an unsaturated group-containing alkoxysilane, 10 to 200 ppm by weight of a catalyst and 50 to 70 weight % of solvent; wherein the weight % is relative to the total weight of the coating composition. 20 to 40 weight % of a silicone rubber, 1 to 3 weight % of a thermal conductive filler, 0.5 to 1 weight % of a polysiloxane having the Formula R 1 3 Si(OSiMe 2) m OSiR 2 r R 3 (3-r) Formula wherein Me is a methyl group, R 1 and R 3 are independently an alkyl group having 1 to 4 carbon atoms, R 2 is a group selected from hydroxyl group, an alkoxy group having 1 to 3 carbon atoms, a vinyl group and a hydrogen atom, r is a number from 1 to 3, m is a number from 30 to 100, 0.1 to 2 weight % of an unsaturated group-containing alkoxysilane, 10 to 200 ppm by weight of a catalyst and 50 to 70 weight % of solvent;
Rotary encoder with a detection electronics and an angle encoder main shaft, the angle encoder main shaft is a tube, whereby the angle encoder main shaft has an insertion opening at one end and an angle encoder coupling at the other end, whereby the angle encoder coupling is operatively connectable with a square coupling of a solid insert shaft or a hollow shaft coupling of a insert hollow shaft in a frictional/form-fit manner, whereby the angle encoder main shaft has a main shaft tube which has a thread groove, whereby the main shaft tube extends through a hollow shaft ring which projects fully from the main shaft tube as part of the angle encoder main shaft, whereby at the other end of the insertion opening the main shaft tube forms the angle encoder coupling, whereby the angle encoder coupling in turn consists of four sockets which project rectangular into the extended inner diameter of the main shaft tube, whereby the angle encoder main shaft can be connected to the solid insert shaft or the insert hollow shaft in a frictional/form-fit manner when the insert solid shaft or the insert hollow shaft is inserted through the insertion opening into the main shaft tube until the square coupling or the hollow shaft coupling is correspondingly operatively connected to the angle encoder coupling and transmission is possible.
An image processing method for categorising elements in an image of a body fluid sample, the method comprising the steps of - generating a respective probability map (11 1-n) in association with each category of elements on a basis of visual information detectable in the image, each probability map showing a presence probability distribution of an element of the given category, - examining the generated probability maps (11 1-n) for each category to determine whether there are presumably present elements in the image, - positioning an examination area for each presumably present element on the probability map associated with the category of the element, - making decision in respect of presence of elements of the categories on the basis of analysing the probability maps (11 1-n), characterized in that, for each presumably present element, in making the decision regarding the presence of said presumably present element in the respective examination area, an identically positioned examination area of at least one further probability map in addition to the probability map associated with the category of said presumably present element is taken into account, - and the examination relating to the presumably present elements for each probability map is carried out in a way that contiguous groups of probability values above a threshold level are found in the probability map and then it is determined on the basis of the size of the groups and/or of the magnitude of the probability values in the group whether the group corresponds to the presumably present element. - generating a respective probability map (11 1-n) in association with each category of elements on a basis of visual information detectable in the image, each probability map showing a presence probability distribution of an element of the given category, - examining the generated probability maps (11 1-n) for each category to determine whether there are presumably present elements in the image, - positioning an examination area for each presumably present element on the probability map associated with the category of the element, - making decision in respect of presence of elements of the categories on the basis of analysing the probability maps (11 1-n), characterized in that, for each presumably present element, in making the decision regarding the presence of said presumably present element in the respective examination area, an identically positioned examination area of at least one further probability map in addition to the probability map associated with the category of said presumably present element is taken into account, - and the examination relating to the presumably present elements for each probability map is carried out in a way that contiguous groups of probability values above a threshold level are found in the probability map and then it is determined on the basis of the size of the groups and/or of the magnitude of the probability values in the group whether the group corresponds to the presumably present element.
A method of making a crosslinked polymer comprising a therapeutic agent, comprising the steps of: providing a polymer precursor comprising a formula: wherein: 1 ≤ n ≤ 20,000 and m is from 2 to 16; C= represents a core molecule which is a non-toxic polyhydroxy compound; R 1 = H, or a natural alpha-amino acid side chain; R 2 = a C1-C20 alkyl ene group, a substituted or unsubstituted aryl ene group, or a peptide; and R 3 = an activating group selected from N-succinimidyl or N-sulfosuccinimidyl; and reacting the polymer precursor with a therapeutic molecule containing at least two pendant primary amine groups to form said crosslinked polymer. providing a polymer precursor comprising a formula: wherein: 1 ≤ n ≤ 20,000 and m is from 2 to 16; C= represents a core molecule which is a non-toxic polyhydroxy compound; R 1 = H, or a natural alpha-amino acid side chain; R 2 = a C1-C20 alkyl ene group, a substituted or unsubstituted aryl ene group, or a peptide; and R 3 = an activating group selected from N-succinimidyl or N-sulfosuccinimidyl; and reacting the polymer precursor with a therapeutic molecule containing at least two pendant primary amine groups to form said crosslinked polymer. 1 ≤ n ≤ 20,000 and m is from 2 to 16; C= represents a core molecule which is a non-toxic polyhydroxy compound; R 1 = H, or a natural alpha-amino acid side chain; R 2 = a C1-C20 alkyl ene group, a substituted or unsubstituted aryl ene group, or a peptide; and R 3 = an activating group selected from N-succinimidyl or N-sulfosuccinimidyl; and reacting the polymer precursor with a therapeutic molecule containing at least two pendant primary amine groups to form said crosslinked polymer.
A personal respiratory protection air filtering device that comprises: (a) a housing that includes a plurality of subsections (32, 34 36), each subsection (32, 34 36) constructed for receiving a filter element (26, 28, 30); (b) an inlet disposed at a first location on the housing; (c) an upstream air distribution system in fluid communication with the inlet and with each of the subsections (32, 34 36), wherein the upstream air distribution system is upstream of the plurality of subsections (32, 34 36); (d) a downstream air distribution system located in fluid communication with each subsection (32, 34 36), wherein the downstream air distribution system is downstream of the plurality of subsections (32, 34 36); and e) an outlet in fluid communication with the downstream air distribution system; characterized in that the upstream and/or downstream air distribution systems are constructed to cause substantially the same airflow velocity through each subsection (32, 34 36), and in that the housing is curved along a longitudinal axis such that the housing is configured to be located within a crown space of a helmet, wherein the crown space of the helmet is a space between a wearer's head and an interior side of the helmet. (a) a housing that includes a plurality of subsections (32, 34 36), each subsection (32, 34 36) constructed for receiving a filter element (26, 28, 30); (b) an inlet disposed at a first location on the housing; (c) an upstream air distribution system in fluid communication with the inlet and with each of the subsections (32, 34 36), wherein the upstream air distribution system is upstream of the plurality of subsections (32, 34 36); (d) a downstream air distribution system located in fluid communication with each subsection (32, 34 36), wherein the downstream air distribution system is downstream of the plurality of subsections (32, 34 36); and e) an outlet in fluid communication with the downstream air distribution system;
An apparatus for detecting transient electromagnetic pulse disturbances associated with at least one of El and E2 phases of an electromagnetic pulse, comprising, a housing (901, 902); an electromagnetic pulse sensitive feed (501, 503, 904, 1005) for receiving a received signal, the electromagnetic pulse sensitive feed comprising an AC mains power supply line; a pulse detector (105, 505, 1302) operatively coupled to the electromagnetic pulse sensitive feed to detect pulse disturbance durations in at least one of microseconds and nanoseconds to output a detected pulse indication signal; wherein the pulse detector (105, 505, 1302) comprises an activation circuit to convert the detected pulse indication signal to an alert signal; and an alarm (106, 1303) operatively coupled to the activation circuit for indicating on the alert signal, wherein the apparatus including the pulse detector (105, 505, 1302) and activation circuit is contained in the housing (901, 902) and further comprises at least a pair of AC mains wall plug prongs extending from a side of the housing and operatively coupled to the AC mains power supply line. a housing (901, 902); an electromagnetic pulse sensitive feed (501, 503, 904, 1005) for receiving a received signal, the electromagnetic pulse sensitive feed comprising an AC mains power supply line; a pulse detector (105, 505, 1302) operatively coupled to the electromagnetic pulse sensitive feed to detect pulse disturbance durations in at least one of microseconds and nanoseconds to output a detected pulse indication signal; wherein the pulse detector (105, 505, 1302) comprises an activation circuit to convert the detected pulse indication signal to an alert signal; and an alarm (106, 1303) operatively coupled to the activation circuit for indicating on the alert signal, wherein the apparatus including the pulse detector (105, 505, 1302) and activation circuit is contained in the housing (901, 902) and further comprises at least a pair of AC mains wall plug prongs extending from a side of the housing and operatively coupled to the AC mains power supply line.
A gas turbine engine having a forward thrust mode and a reverse thrust mode, said gas turbine engine comprising: a variable pitch fan configured for generating forward thrust in the forward thrust mode of said engine and reverse thrust in the reverse thrust mode of said engine; a fan cowl surrounding said variable pitch fan, wherein said fan cowl forms a bypass duct for airflow generated by said fan, said fan cowl comprising: an aft edge that defines a physical nozzle exit area of said bypass duct; and a deflection device configured for deflecting airflow near said aft edge, said deflection device configured for operation in the reverse thrust mode of said engine; wherein the physical nozzle exit area of said bypass duct at said aft edge remains the same in the forward thrust mode of said engine and in the reverse thrust mode of said engine, wherein said deflection device is a spoiler, and wherein said deflection device is a strictly external mechanism of said fan cowl. a variable pitch fan configured for generating forward thrust in the forward thrust mode of said engine and reverse thrust in the reverse thrust mode of said engine; a fan cowl surrounding said variable pitch fan, wherein said fan cowl forms a bypass duct for airflow generated by said fan, said fan cowl comprising: an aft edge that defines a physical nozzle exit area of said bypass duct; and a deflection device configured for deflecting airflow near said aft edge, said deflection device configured for operation in the reverse thrust mode of said engine; an aft edge that defines a physical nozzle exit area of said bypass duct; and a deflection device configured for deflecting airflow near said aft edge, said deflection device configured for operation in the reverse thrust mode of said engine; wherein the physical nozzle exit area of said bypass duct at said aft edge remains the same in the forward thrust mode of said engine and in the reverse thrust mode of said engine, wherein said deflection device is a spoiler, and wherein said deflection device is a strictly external mechanism of said fan cowl.
A method for processing oxygenated hydrocarbons to remove oxygen and to form a hydroisomerized and/or dewaxed hydrocarbon product, which process comprises the following steps: providing a feedstock comprising (i) at least 1.2 wt% oxygen content and (ii) at least 2 wt% water content, wherein the feedstock comprises at least 15% by weight of compounds containing at least 6 carbons; and contacting the feedstock with a catalyst composition under conditions sufficient to (a) at least partially deoxygenate the feedstock and (b) at least partially hydroisomerize and/or dewax the feedstock, to form a product, wherein the product exhibits (iii) an oxygen content at least 30% lower than the feedstock oxygen content, and one or more of (iv) an iso-paraffin content that is at least 20% higher than the iso-paraffin content of the feedstock, (v) a pour point of a diesel boiling range fraction thereof that is no greater than -10°C, and (vi) a cloud point of a diesel boiling range fraction thereof that is no greater than -5°C, and wherein the catalyst composition is capable of hydroisomerization and/or dewaxing and comprises a zeolitic support selected from ZSM-5, ZSM-48, ZSM-23, and combinations thereof, at least one active metal compound comprising either (i) a Group VIII noble metal selected from platinum and/or palladium or (ii) a Group VIII non-noble metal selected from nickel, cobalt, iron and combinations thereof, and a Group VIB metal selected from molybdenum and/or tungsten deposited thereon, and a hydrophilic, hydrothermally-stable binder comprising an oxide, of one or more metals selected from titanium, zirconium, vanadium, molybdenum, manganese, and cerium,. providing a feedstock comprising (i) at least 1.2 wt% oxygen content and (ii) at least 2 wt% water content, wherein the feedstock comprises at least 15% by weight of compounds containing at least 6 carbons; and contacting the feedstock with a catalyst composition under conditions sufficient to (a) at least partially deoxygenate the feedstock and (b) at least partially hydroisomerize and/or dewax the feedstock, to form a product,