mhurhangee/ep-ind-claims huggingface dataset:
An outdoor device of an air conditioner, comprising: a top cover configured to form an external appearance of an upper surface of the outdoor device, the top cover having at least one discharge port, through which air passed through an outdoor heat exchanger can be discharged and a recess recessed along at least a portion of an edge of the top cover; and a plurality of panels configured to form an external appearance of a circumference of the outdoor device, wherein an outer end of the top cover is bent downward to form an edge configured to accommodate upper ends of the plurality of panels, and wherein an upper end of each of the plurality of panels is bent toward an inside of the outdoor device to form a bent portion, wherein the bent portion is formed to extend and be fitted into a space between the edge and the recess, and restricted by the top cover,and wherein a circumference of the recess is formed to be inclined, and formed by a restriction portion (143; 133), which is in contact with an end of the bent portion, and a distance between the restriction portion (143; 133) and the edge is gradually reduced upward. a top cover configured to form an external appearance of an upper surface of the outdoor device, the top cover having at least one discharge port, through which air passed through an outdoor heat exchanger can be discharged and a recess recessed along at least a portion of an edge of the top cover; and a plurality of panels configured to form an external appearance of a circumference of the outdoor device, wherein an outer end of the top cover is bent downward to form an edge configured to accommodate upper ends of the plurality of panels, and wherein an upper end of each of the plurality of panels is bent toward an inside of the outdoor device to form a bent portion, wherein the bent portion is formed to extend and be fitted into a space between the edge and the recess, and restricted by the top cover,and wherein a circumference of the recess is formed to be inclined, and formed by a restriction portion (143; 133), which is in contact with an end of the bent portion, and a distance between the restriction portion (143; 133) and the edge is gradually reduced upward.
An apparatus configured to communicate with a network and a host device, comprising: one or more processors; and memory coupled with and readable by the one or more processors, wherein the memory is configured to store a plurality of transport contexts; wherein the apparatus is configured to: receive a message and destination information associated with the message from the host device (410;502;602), the destination information comprising an address handle, wherein the address handle is a reference to a network address map object; and determine, using the address handle, the network address map object from a plurality of address map objects stored in the memory, the determined network address map object being associated with a transport context from the plurality of transport contexts, wherein the transport context is assigned a transport service type for which the transport context monitors and maintains a state of a connection with a destination on the network (430;530;630), wherein the destination on the network (430;530;630) is associated with the destination information. one or more processors; and memory coupled with and readable by the one or more processors, wherein the memory is configured to store a plurality of transport contexts; wherein the apparatus is configured to: receive a message and destination information associated with the message from the host device (410;502;602), the destination information comprising an address handle, wherein the address handle is a reference to a network address map object; and determine, using the address handle, the network address map object from a plurality of address map objects stored in the memory, the determined network address map object being associated with a transport context from the plurality of transport contexts, wherein the transport context is assigned a transport service type for which the transport context monitors and maintains a state of a connection with a destination on the network (430;530;630), wherein the destination on the network (430;530;630) is associated with the destination information. receive a message and destination information associated with the message from the host device (410;502;602), the destination information comprising an address handle, wherein the address handle is a reference to a network address map object; and determine, using the address handle, the network address map object from a plurality of address map objects stored in the memory, the determined network address map object being associated with a transport context from the plurality of transport contexts, wherein the transport context is assigned a transport service type for which the transport context monitors and maintains a state of a connection with a destination on the network (430;530;630), wherein the destination on the network (430;530;630) is associated with the destination information.
An isolated antibody comprising a human IgG Fc domain, wherein the human IgG Fc domain comprises: a glycosylated asparagine residue at amino acid position 298, according to EU numbering; and a serine or threonine residue at amino acid position 300, according to EU numbering.
A multi-channel RF device, wherein the device comprises: a cavity; a first channel being configured to generate a first RF signal and to transmit the first RF signal into the cavity; and a second channel spaced apart and electrically isolated from the first channel; characterized in that the second channel is configured to: wirelessly receive the first RF signal transmitted by the first channel; extract a frequency of the first RF signal from the received first RF signal; generate, based on the extracted frequency, a second RF signal; and transmit the second RF signal into the cavity. a cavity; a first channel being configured to generate a first RF signal and to transmit the first RF signal into the cavity; and a second channel spaced apart and electrically isolated from the first channel; characterized in that the second channel is configured to: wirelessly receive the first RF signal transmitted by the first channel; extract a frequency of the first RF signal from the received first RF signal; generate, based on the extracted frequency, a second RF signal; and transmit the second RF signal into the cavity. wirelessly receive the first RF signal transmitted by the first channel; extract a frequency of the first RF signal from the received first RF signal; generate, based on the extracted frequency, a second RF signal; and transmit the second RF signal into the cavity.
A washing machine, comprising: a tub; a drum provided to be rotatable in the tub to accommodate laundry; a drive motor rotating the drum; a balancer housing which is in a ring shape and coupled to the drum; a balancer including at least two balancers including a weight offsetting an unbalanced load generated by the laundry during a spin-dry cycle and a moving unit moving the weight, and provided to be movable in the balancer housing; and a control unit performing a balancing operation of moving the balancer to a balancing position where the unbalanced load is offset, characterized in that the control unit is configured to perform a compensating operation of moving the balancers to a compensation position where a reduction of the unbalanced load is compensated for before rotating the drum at a predetermined spin-dry speed. a tub; a drum provided to be rotatable in the tub to accommodate laundry; a drive motor rotating the drum; a balancer housing which is in a ring shape and coupled to the drum; a balancer including at least two balancers including a weight offsetting an unbalanced load generated by the laundry during a spin-dry cycle and a moving unit moving the weight, and provided to be movable in the balancer housing; and a control unit performing a balancing operation of moving the balancer to a balancing position where the unbalanced load is offset, characterized in that the control unit is configured to perform a compensating operation of moving the balancers to a compensation position where a reduction of the unbalanced load is compensated for before rotating the drum at a predetermined spin-dry speed.
A vehicle for transporting a long transport item, such as a blade for a wind turbine, comprising a front chassis section and a rear chassis section spaced apart therefrom in the longitudinal direction of the vehicle, wherein the front chassis section and the rear chassis section are connected to one another by means of a telescopic longitudinal member, characterized in that the front chassis section has a vertical member whose base is held between a front part and a rear part of the front chassis section and in whose upper region a pivotable adapter for receiving the transport item is rotatably supported.
A method for obtaining a fourth order trajectory (150, 250, 350) for moving an object, O, from a first point, A, to a second point, B, covering a distance, d, using predefined velocity, acceleration, jerk and snap constraint values, v max, a max, j max, s max, wherein the fourth order trajectory (150, 250, 350) is obtained on the basis of an operating snap profile (190, 290, 390) representing the fourth derivative of the trajectory (150, 250, 350) of the position of the object, O, and comprising a plurality of time intervals with corresponding snap values, and wherein a first snap profile is determined on the basis of the distance, d, and of the velocity, acceleration, jerk and snap constraint values, v max, a max, j max, s max, and is defined as the operating snap profile if the velocity constraint value, v max, is attained in a first velocity profile representing the first derivative of a first trajectory corresponding to the first snap profile, characterized in that a second snap profile different from the first snap profile is determined on the basis of the distance, d, and of the acceleration, jerk and snap constraint values, a max, j max, s max, and is defined as the operating snap profile if the velocity constraint value, v max, is not attained in the first velocity profile and if a maximum velocity in a second velocity profile representing the first derivative of a second trajectory corresponding to the second snap profile does not exceed the velocity constraint value, v max, and a third snap profile different from the first snap profile and from the second snap profile is determined on the basis of the distance, d, of the maximum velocity in the second velocity profile and of the velocity, acceleration, jerk and snap constraint values v max, a max, j max, s max, and is defined as the operating snap profile if the maximum velocity in the second velocity profile does exceed the velocity constraint value, v max.
Solar thermal system comprising a collector, a primary circuit through which a fluid configured for being heated by the collector circulates, the primary circuit comprising a first exchanger through which the collector heats the fluid circulating through the primary circuit, a secondary domestic water circuit, a main tank in which the fluid of the primary circuit heats the domestic water of the secondary circuit, and an auxiliary tank configured for housing at least part of the fluid of the primary circuit when said fluid is not circulating and for heating the domestic water, characterized in that the main tank, the auxiliary tank, the collector, and the primary circuit form an integrated structure, the solar thermal system comprising an enclosure in which the main tank, the auxiliary tank, the collector and the primary circuit are housed.
Use of cocoa shell powder to increase resistance of chocolate products to fat bloom, wherein the cocoa shell powder is present in the chocolate product in an amount of 5 to 40 wt.-%.
A hydrogen water generator comprising: a body including a first outlet coupled to a first inlet that is configured to receive supply water, and a second inlet coupled to a second outlet, the second outlet configured to discharge hydrogen water; a water tank assembly detachably attached to the body, the water tank assembly including a water tank and an electrode module coupled to the water tank, the water tank including a third inlet and a third outlet, wherein when the water tank assembly is attached to the body, the third inlet of the water tank couples to the first outlet of the body, and the third outlet of the water tank couples with the second inlet of the body, characterized in that the body comprises a central body, a lower body, and an upper body, the lower body extending from a lower portion of the central body and including a guide surface, wherein the water tank assembly is placed on the guide surface to be slidingly moved to be attached to the body, and the central body including the first outlet and the second inlet. a body including a first outlet coupled to a first inlet that is configured to receive supply water, and a second inlet coupled to a second outlet, the second outlet configured to discharge hydrogen water; a water tank assembly detachably attached to the body, the water tank assembly including a water tank and an electrode module coupled to the water tank, the water tank including a third inlet and a third outlet, wherein when the water tank assembly is attached to the body, the third inlet of the water tank couples to the first outlet of the body, and the third outlet of the water tank couples with the second inlet of the body, characterized in that the body comprises a central body, a lower body, and an upper body, the lower body extending from a lower portion of the central body and including a guide surface, wherein the water tank assembly is placed on the guide surface to be slidingly moved to be attached to the body, and the central body including the first outlet and the second inlet.
A shape measurement apparatus configured to measure a surface shape of a strip-shaped body made of a metallic body, the shape measurement apparatus comprising: a linear light source that includes a superluminescent diode and is configured to apply linear light spreading in a width direction of the strip-shaped body to a surface of the strip-shaped body; a screen arranged so that reflected light of the linear light off the surface of the strip-shaped body is projected on the screen; an area camera configured to capture an image of the reflected light of the linear light projected on the screen; and an arithmetic processing apparatus configured to calculate the surface shape of the strip-shaped body using the captured image of the reflected light of the linear light captured by the area camera, wherein the linear light source has a spectral half-width of 20 nm or more, and is placed in a manner that an angle θ formed by an optical axis of the linear light source and a direction normal to the surface of the strip-shaped body and a wavelength λ of the linear light in μm satisfy Formula below related to specularity of the strip-shaped body, [Math. 1] cos ⁢ θ λ ≤ 1 2 ⁢ π wherein the linear light source is configured so that on the surface of the strip-shaped body, a line width W of the linear light along a longitudinal direction of the strip-shaped body is controlled so as to satisfy Formula below, [Math. 2] W L min ≤ λ 2 ⁢ π where L min is a minimum value of a size of the surface shape to be measured along the longitudinal direction, and λ is the wavelength of the linear light in μm. a linear light source that includes a superluminescent diode and is configured to apply linear light spreading in a width direction of the strip-shaped body to a surface of the strip-shaped body; a screen arranged so that reflected light of the linear light off the surface of the strip-shaped body is projected on the screen; an area camera configured to capture an image of the reflected light of the linear light projected on the screen; and an arithmetic processing apparatus configured to calculate the surface shape of the strip-shaped body using the captured image of the reflected light of the linear light captured by the area camera, wherein the linear light source has a spectral half-width of 20 nm or more, and is placed in a manner that an angle θ formed by an optical axis of the linear light source and a direction normal to the surface of the strip-shaped body and a wavelength λ of the linear light in μm satisfy Formula below related to specularity of the strip-shaped body, [Math. 1] cos ⁢ θ λ ≤ 1 2 ⁢ π wherein the linear light source is configured so that on the surface of the strip-shaped body, a line width W of the linear light along a longitudinal direction of the strip-shaped body is controlled so as to satisfy Formula below, [Math. 2] W L min ≤ λ 2 ⁢ π where L min is a minimum value of a size of the surface shape to be measured along the longitudinal direction, and λ is the wavelength of the linear light in μm.
Cleaning composition comprising from 20 to 90% by weight of dimethyl sulfoxide, from 5 to 30% by weight of at least one mineral oil, and from 5 to 50% by weight of at least one bipolar organic solvent selected from the group consisting of aliphatic monoalcohols having from 4 to 14 carbon atoms, where the ranges of proportions indicated are in each case based on the total weight of the cleaning composition.
Method for obtaining self-cleaning and self-sanitizing surfaces of finished leather, wherein said method comprises a first step of depositing a first coating layer of a first active mixture and a second step, subsequent to said first step, of depositing a second coating layer of a second active mixture, above said first layer, on the surface of said finished leather, wherein said first active mixture comprises a film-forming compound formed by polymer and filler, a flow additive, a cross-linking compound, an anti-oxidant compound and an aqueous dispersion, while said second active mixture comprises an auxiliary water-based flow additive compound, a silicone emulsion, a solvent aliphatic pre-polymer, a water repellent agent and solvent agents and/or wetting agents and/or dispersant agents and/or anti-foaming agents, characterized in that said second active mixture also comprises a photo-catalyst compound and a powder formulation with a biocide action, wherein, with reference to said first active mixture, said film-forming compound includes poly-acrylates and organic and inorganic fillers, said flow compound includes additive surfactants and volatile substances, said cross-linker compound includes blocked di-isocyanate and said anti-oxidant compound includes a sterically hindered phenol derivative and said aqueous dispersion includes derivatives of 2,2,6,6-tetramethylpiperidine and 2-hydroxyphenyl-s-triazine, while, with reference to said second active mixture, said auxiliary water-based flow additive compound includes a polyether-siloxane copolymer containing fumed silica, said silicone emulsion includes silicon, said solvent aliphatic pre-polymer includes polyhexamethyldiisocyanate said photo-catalyst compound includes titanium dioxide, said water-repellent agent includes a silicone resin, said powder formulation with a biocide action includes glass ceramic powder doped with inorganic ions, such as silver ions or copper ions, supported on zeolites and said solvent agents and/or said wetting agents and/or said dispersant agents and/or said anti-foaming agents include de-ionized water, aqueous dispersion of polyurethane, aliphatic polyurethane and/or inorganic matting agents, siloxane resins with modified polyurethane and/or vinyl resins and/or acrylic resins.
Plastics processing roll, comprising a rigid inner cylinder covered at least partially by at least one flexible liner, said flexible liner comprising a plurality of fluid ducts, each of the ducts is connected to an inflow duct and to an outflow duct, wherein an elastic metal sleeve encases said flexible liner and is designed to be friction-locked onto the flexible liner by means of pressurizing the fluid ducts characterised in that said flexible liner is formed by a plurality of longitudinal elements being arranged in parallel to each other, wherein each of said longitudinal elements houses at least one of said fluid ducts, wherein the fluid ducts are formed directly in the material of the flexible liner.
A method of producing a recombinant microorganism, comprising: (a) providing a microorganism comprising a genetic element comprising a target nucleic acid T1, a target nucleic acid T2, and a target nucleic acid T3, in the order 5'-T3-T1-T2-3'; (b) providing a DNA construct comprising a left homology arm LHA1 homologous to T1, a right homology arm RHA1 homologous to T2, a right homology arm RHA2 homologous to T3 and an insertion nucleic acid IS1, in the order 5'-LHA1-RHA2-IS1-RHA1-3', further comprising a counter selection marker CS1 upstream of LHA1 and (i) a positive selection marker PS1 and a counter selection marker CS2 between LHA1 and RHA2; or (ii) a positive selection marker PS1 between LHA1 and RHA2; (c) allowing the genetic element of (a) to undergo homologous recombination with the DNA construct of (b), whereby T1 aligns with LHA1 and T2 aligns with RHA1 to insert the portion of the DNA construct between LHA1 and RHA1, including RHA2, into the genetic element between T1 and T2, to form a microorganism comprising a genetic element comprising 5'-T3-T1-RHA2-IS1-T2-3'; and (d) allowing the genetic element of (c) to undergo self-homologous recombination, whereby T3 aligns with RHA2 to remove the portion of the genetic element between T3 and RHA2, to form a microorganism comprising a genetic element comprising 5'-T3-IS1-T2-3', such that T1 is replaced by IS1 in the genetic element. (a) providing a microorganism comprising a genetic element comprising a target nucleic acid T1, a target nucleic acid T2, and a target nucleic acid T3, in the order 5'-T3-T1-T2-3'; (b) providing a DNA construct comprising a left homology arm LHA1 homologous to T1, a right homology arm RHA1 homologous to T2, a right homology arm RHA2 homologous to T3 and an insertion nucleic acid IS1, in the order 5'-LHA1-RHA2-IS1-RHA1-3', further comprising a counter selection marker CS1 upstream of LHA1 and (i) a positive selection marker PS1 and a counter selection marker CS2 between LHA1 and RHA2; or (ii) a positive selection marker PS1 between LHA1 and RHA2; (i) a positive selection marker PS1 and a counter selection marker CS2 between LHA1 and RHA2; or (ii) a positive selection marker PS1 between LHA1 and RHA2; (c) allowing the genetic element of (a) to undergo homologous recombination with the DNA construct of (b), whereby T1 aligns with LHA1 and T2 aligns with RHA1 to insert the portion of the DNA construct between LHA1 and RHA1, including RHA2, into the genetic element between T1 and T2, to form a microorganism comprising a genetic element comprising 5'-T3-T1-RHA2-IS1-T2-3'; and (d) allowing the genetic element of (c) to undergo self-homologous recombination, whereby T3 aligns with RHA2 to remove the portion of the genetic element between T3 and RHA2, to form a microorganism comprising a genetic element comprising 5'-T3-IS1-T2-3', such that T1 is replaced by IS1 in the genetic element.