mhurhangee/ep-ind-claims huggingface dataset:
A multilayer film structure comprising a layer B and a bottom layer C, each layer having opposing facial surfaces in adhering contact with the other layer, wherein: the layer B comprises a blend of: a crystalline block copolymer composite or a specified block copolymer composite, comprising: i) an ethylene polymer comprising at least 80 mol % polymerized ethylene, ii) an alpha-olefin-based crystalline polymer (CAOP), and iii) a block copolymer comprising (a) an ethylene polymer block comprising at least 80 mol % polymerized ethylene and (b) a crystalline alpha-olefin block (CAOB); and one or more other polymers, the other polymer being an ethylene octene copolymer plastomer or ethylene octene copolymer elastomer, LLDPE, LDPE, a propylene based elastomer, a polyolefin grafted or functionalized with glycidyl methacrylate, maleic anhydride, amine, or silane, or a polar copolymer of ethylene; and the bottom layer C comprising a polyolefin having at least one melting peak greater than 125°C, and having a top facial layer and a bottom facial surface, the top facial surface of layer C being in adhering contact with the bottom facial surface of layer B. the layer B comprises a blend of: a crystalline block copolymer composite or a specified block copolymer composite, comprising: i) an ethylene polymer comprising at least 80 mol % polymerized ethylene, ii) an alpha-olefin-based crystalline polymer (CAOP), and iii) a block copolymer comprising (a) an ethylene polymer block comprising at least 80 mol % polymerized ethylene and (b) a crystalline alpha-olefin block (CAOB); and one or more other polymers, the other polymer being an ethylene octene copolymer plastomer or ethylene octene copolymer elastomer, LLDPE, LDPE, a propylene based elastomer, a polyolefin grafted or functionalized with glycidyl methacrylate, maleic anhydride, amine, or silane, or a polar copolymer of ethylene; and a crystalline block copolymer composite or a specified block copolymer composite, comprising: i) an ethylene polymer comprising at least 80 mol % polymerized ethylene, ii) an alpha-olefin-based crystalline polymer (CAOP), and iii) a block copolymer comprising (a) an ethylene polymer block comprising at least 80 mol % polymerized ethylene and (b) a crystalline alpha-olefin block (CAOB); and i) an ethylene polymer comprising at least 80 mol % polymerized ethylene, ii) an alpha-olefin-based crystalline polymer (CAOP), and iii) a block copolymer comprising (a) an ethylene polymer block comprising at least 80 mol % polymerized ethylene and (b) a crystalline alpha-olefin block (CAOB); and one or more other polymers, the other polymer being an ethylene octene copolymer plastomer or ethylene octene copolymer elastomer, LLDPE, LDPE, a propylene based elastomer, a polyolefin grafted or functionalized with glycidyl methacrylate, maleic anhydride, amine, or silane, or a polar copolymer of ethylene; and the bottom layer C comprising a polyolefin having at least one melting peak greater than 125°C, and having a top facial layer and a bottom facial surface, the top facial surface of layer C being in adhering contact with the bottom facial surface of layer B.
A device for separately collecting waste, comprising: at least two containers for separately inserting waste; a base frame bearing said containers; a selective tipping mechanism for tipping at least one container to facilitate the emptying of the containers, characterised in that the tipping mechanism comprises a shaft that is angularly rotatable along a respective longitudinal axis of rotation and rotatably supported by said base frame, and a selective connecting system associated with each container to connect a respective container rotatably engaged about the shaft to said shaft, and to enable mechanical transmission of the rotational movement from the shaft to the container to cause it to tip around said longitudinal axis of rotation during the emptying stage, wherein said selective connecting system comprises at least one slider slidably associated with said shaft, and at least one interference element, present on said shaft, said slider being movable between a first non-operating position, wherein it is positioned in such a manner as to turn freely on said shaft, and a second operating position, wherein it is engaged on said interference element, to connect the selected container to said shaft. at least two containers for separately inserting waste; a base frame bearing said containers; a selective tipping mechanism for tipping at least one container to facilitate the emptying of the containers, characterised in that the tipping mechanism comprises a shaft that is angularly rotatable along a respective longitudinal axis of rotation and rotatably supported by said base frame, and a selective connecting system associated with each container to connect a respective container rotatably engaged about the shaft to said shaft, and to enable mechanical transmission of the rotational movement from the shaft to the container to cause it to tip around said longitudinal axis of rotation during the emptying stage, wherein said selective connecting system comprises at least one slider slidably associated with said shaft, and at least one interference element, present on said shaft, said slider being movable between a first non-operating position, wherein it is positioned in such a manner as to turn freely on said shaft, and a second operating position, wherein it is engaged on said interference element, to connect the selected container to said shaft.
A vertical shaft impact crusher rotor distributor plate adapted to be releasably mounted on a horizontal lower disc of a rotor of a vertical shaft impact crusher, characterised in that the distributor plate comprises an upper surface (70, 86) to support a flow of a feed material over the upper surface (70, 86) and is an equilateral polygon as seen from above, and has a shape, as seen from above, which has outwardly directed corners with obtuse angles and is chosen among hexagonal and octagonal shapes, wherein the distributor plate comprises a central flat area from which a sloped surface extends.
Method for estimating the combustion richness of an internal combustion engine, said engine comprising at least one cylinder, at least one richness measuring probe, the method comprising the steps consisting of: calculating a simple model richness (Φ _ Calc) by means of a value of fuel flow injected (qlnj) in the cylinder and a measurement or modeling of admitted air flow (Qair), measure a richness signal using from the richness probe, quantify richness drifts on engine operating points from the measured richness signal and the simple richness model (Φ _ Calc); memorize a map of wealth drifts quantified at operating points; apply a correction to the simple richness model from a richness drift stored in the map, in which the richness drifts stored in the map are quantified at operating points where the engine is in transient mode, the method being characterized in that it further comprises a step of realigning at least one drift value stored in the map, which realignment step comprises the implementation of a Kalman filter at an operating point in transient mode and the application of a drift correction thus reset to the richness model, the method also comprising a step of monitoring a saturation state of the measuring probe, and, in the event of saturation, a step consisting of applying a correction of drift to the richness model using at least one drift value stored in the mapping by inhibiting the step of resetting this richness drift value from the mapping using the Kalman filter.
Method for controlling a system for regulating temperature in a building, this system comprising a heat pump, which acts on the temperature of a heat transfer fluid, and at least one heat emitter (81 -84), in which the supply of heat transfer fluid from the heat pump is controlled by a control valve, in which method the operation of the heat pump is controlled by means of a temperature setpoint (T c) of the heat transfer fluid at the inlet or outlet of the heat pump, characterised in that it comprises steps consisting of: a) acquiring data (S 101 -S 104) relating to the opening of the control valve or valves; b) adjusting (1009, 1011, 1012) the value of the temperature setpoint (T c) of the heat pump in dependence on the data acquired in step a). a) acquiring data (S 101 -S 104) relating to the opening of the control valve or valves; b) adjusting (1009, 1011, 1012) the value of the temperature setpoint (T c) of the heat pump in dependence on the data acquired in step a).
A sensorized garment comprising: - an under helmet hood made of a textile material, which can be worn to cover at least the head of an individual; - at least one textile pressure sensor and at least one textile deformation sensor incorporated in said under helmet hood and configured to contact the body surface of said individual, each pressure sensor being configured to detect a pressure value to thereby generate a first signal according to said detected pressure value, each deformation sensor being configured to detect a deformation value to thereby generate a second signal according to said detected deformation value; - a control unit in signal communication with said at least one textile pressure sensor and with said at least one textile deformation sensor for receiving said first signal and said second signal respectively, said control unit being configured to generate an alarm signal when the value of at least one of said first signal and said second signal exceeds a respective preset threshold value; - each textile pressure sensor is placed in a portion of said under helmet hood which is designed to contact one or more areas selected from forehead, scalp, temples, nose, jaws, cheeks and cheekbones of said individual; characterized in that - the under helmet hood can be worn to cover also the neck of said individual, and each textile deformation sensor is placed in a portion of said under helmet hood which is designed to contact an area of the neck of said individual. - an under helmet hood made of a textile material, which can be worn to cover at least the head of an individual; - at least one textile pressure sensor and at least one textile deformation sensor incorporated in said under helmet hood and configured to contact the body surface of said individual, each pressure sensor being configured to detect a pressure value to thereby generate a first signal according to said detected pressure value, each deformation sensor being configured to detect a deformation value to thereby generate a second signal according to said detected deformation value; - a control unit in signal communication with said at least one textile pressure sensor and with said at least one textile deformation sensor for receiving said first signal and said second signal respectively, said control unit being configured to generate an alarm signal when the value of at least one of said first signal and said second signal exceeds a respective preset threshold value; - each textile pressure sensor is placed in a portion of said under helmet hood which is designed to contact one or more areas selected from forehead, scalp, temples, nose, jaws, cheeks and cheekbones of said individual; - the under helmet hood can be worn to cover also the neck of said individual, and each textile deformation sensor is placed in a portion of said under helmet hood which is designed to contact an area of the neck of said individual.
A method for transmitting an uplink signal at a user equipment, UE, in a wireless communication system, the method comprising: when a first parameter n ID PUSCH and a second parameter N ID csh _ DMRS for a reference signal for demodulation of a physical uplink shared channel, PUSCH, is provided, generating, by the UE the reference signal on the basis of n ID PUSCH and N ID csh _ DMRS; and transmitting, by the UE, the generated reference signal, wherein, when n ID PUSCH is provided, sequence group hopping for the reference signal is disabled and sequence hopping for the reference signal is enabled, a pseudo-random sequence generator used to determine a basic sequence number v for the reference signal is initialized according to c init = ⌊ n ID PUSCH 30 ⌋ ⋅ 2 5 + f ss PUSCH at the start of each radio frame based on n ID PUSCH, instead of a physical layer cell ID, N ID cell ∈ 0,..., 503, where a sequence shift pattern f ss PUSCH of the reference signal is determined according to f ss PUSCH = n ID PUSCH mod 30, wherein, when N ID csh _ DMRS is provided, a pseudo-random sequence generator used to determine cyclic shift hopping of the reference signal is initialized according to c init, csh = ⌊ N ID csh _ DMRS 30 ⌋ ⋅ 2 5 + N ID csh _ DMRS mod 30 at the start of each radio frame based on N ID csh _ DMRS instead of N ID cell, wherein mod denotes a modulo operation, and wherein n ID PUSCH ∈ 0,..., 509 and N ID csh _ DMRS ∈ 0,..., 509 are separate parameters provided by a higher layer. when a first parameter n ID PUSCH and a second parameter N ID csh _ DMRS for a reference signal for demodulation of a physical uplink shared channel, PUSCH, is provided, generating, by the UE the reference signal on the basis of n ID PUSCH and N ID csh _ DMRS; and transmitting, by the UE, the generated reference signal, wherein, when n ID PUSCH is provided, sequence group hopping for the reference signal is disabled and sequence hopping for the reference signal is enabled, a pseudo-random sequence generator used to determine a basic sequence number v for the reference signal is initialized according to c init = ⌊ n ID PUSCH 30 ⌋ ⋅ 2 5 + f ss PUSCH at the start of each radio frame based on n ID PUSCH, instead of a physical layer cell ID, N ID cell ∈ 0,..., 503, where a sequence shift pattern f ss PUSCH of the reference signal is determined according to f ss PUSCH = n ID PUSCH mod 30, wherein, when N ID csh _ DMRS is provided, a pseudo-random sequence generator used to determine cyclic shift hopping of the reference signal is initialized according to c init, csh = ⌊ N ID csh _ DMRS 30 ⌋ ⋅ 2 5 + N ID csh _ DMRS mod 30 at the start of each radio frame based on N ID csh _ DMRS instead of N ID cell, wherein mod denotes a modulo operation, and wherein n ID PUSCH ∈ 0,..., 509 and N ID csh _ DMRS ∈ 0,..., 509 are separate parameters provided by a higher layer.
A hemiprosthesis implant, with a replacement joint part (108, 306) with an articular surface (206, 408) for tribological pairing with a joint surface of a natural joint counterpart, wherein the articular surface (206, 408) is embodied with a coating (208, 410) applied to a substrate (204, 406), wherein the substrate (204, 406) comprises a relief (220, 428) for the adhesion of the coating (208, 410), wherein the relief (220, 428) comprises at least one indentation, and wherein several indentations are arranged two-dimensionally for the embodiment of regions with a plurality of indentations, wherein the indentations are embodied in the form of depressions, characterised in that, directly on an outer base of a base body forming the substrate, an at least partially circumferential anchoring groove is embodied, and that the material of the coating (208, 410) is less rigid than the material of the substrate (204, 406). a replacement joint part (108, 306) with an articular surface (206, 408) for tribological pairing with a joint surface of a natural joint counterpart, wherein the articular surface (206, 408) is embodied with a coating (208, 410) applied to a substrate (204, 406), wherein the substrate (204, 406) comprises a relief (220, 428) for the adhesion of the coating (208, 410), wherein the relief (220, 428) comprises at least one indentation, and wherein several indentations are arranged two-dimensionally for the embodiment of regions with a plurality of indentations, wherein the indentations are embodied in the form of depressions,
Sealing arrangement with a first machine part comprising a seal accommodating structure, preferably a groove, a second machine part, which comprises a sealing surface and can be moved relative to the first machine part, and a seal for sealing the sealing surface between the first machine part and the second machine part, wherein the seal is designed in an annular shape as a radial shaft seal, the seal comprising a retaining element which disposes the seal in the seal accommodating structure such that it is fixed in position, wherein the seal has a sealing lip which is formed on the retaining element and is made from an elastomeric material having a sealing edge formed at a free end of the sealing lip, wherein the sealing edge abuts the sealing surface in a pretensioned state due to the elasticity of the elastomeric material of the sealing lip of the seal in such a fashion that the seal seals a high pressure area between the machine parts (1, 3) from a low-pressure area, wherein the sealing lip has a high-pressure surface area bordering the high-pressure area, and a low-pressure surface area bordering the low-pressure area, characterized in that the seal has only one rigid supporting element in the area of its sealing lip, wherein the supporting element forms a support of the sealing lip on the low-pressure surface side, the support extending substantially parallel to the sealing edge, wherein the support is disposed between the sealing edge and the retaining element and divides the high-pressure surface area of the sealing lip into a partial surface on the retaining element side and a partial surface on the sealing edge side, wherein the low-pressure surface area of the sealing lip borders a free space between the support and the retaining element, into which free space the sealing lip can be pressed due to its deformation, wherein the free space is delimited by the low-pressure surface area of the sealing lip and the second machine part, and wherein the partial surface of the high-pressure surface area on the retaining element side is larger than the partial surface on the sealing edge side such that, upon pressurization of the high-pressure surface area, a tilting moment, which acts about the support and relieves the sealing edge, acts on the sealing lip.
A blower device with a blower housing of a blower, a diffuser housing that is fastened to the blower housing, and a diffuser that is accommodated in the diffuser housing, wherein a closed triangular sealing groove with three sealing surfaces is formed between the blower housing, the diffuser housing and the diffuser, wherein the blower housing, the diffuser housing, and the diffuser respectively form one of the three sealing surfaces, and wherein a sealing element is arranged in the closed triangular sealing groove which seals the blower housing, the diffuser housing, and the diffuser from one another.
An apparatus comprising: a multi-junction semiconductor circuit including a first current path and including a second current path, each current path having respective first and second common voltage nodes (108-1, 108-2) therein used to provide an output that is proportional to absolute temperature, the first current path including a first p-n junction exhibiting a first current density; and the second current path including a second p-n junction exhibiting a second current density that is proportionally different than the first current density, and including a resistor connected between the second p-n junction and the second common voltage node in the second current path; the apparatus being characterized by a current-tap path connected to a node between the resistor and the second p-n junction, the current-tap path being configured and arranged to divert a portion of current that flows through the resistor away from the second p-n junction and wherein the first and second current paths include current sources having transistors (222-1, 222-2) that control current flow in the first and second current paths, further including a feedback circuit configured and arranged to set the common voltage nodes to a common voltage by driving gates of the transistors, wherein the resistor is made to appear larger than its physical value via the current-tap path while the common voltage is maintained. a multi-junction semiconductor circuit including a first current path and including a second current path, each current path having respective first and second common voltage nodes (108-1, 108-2) therein used to provide an output that is proportional to absolute temperature, the first current path including a first p-n junction exhibiting a first current density; and the second current path including a second p-n junction exhibiting a second current density that is proportionally different than the first current density, and including a resistor connected between the second p-n junction and the second common voltage node in the second current path; the apparatus being characterized by a current-tap path connected to a node between the resistor and the second p-n junction, the current-tap path being configured and arranged to divert a portion of current that flows through the resistor away from the second p-n junction and wherein the first and second current paths include current sources having transistors (222-1, 222-2) that control current flow in the first and second current paths, further including a feedback circuit configured and arranged to set the common voltage nodes to a common voltage by driving gates of the transistors, wherein the resistor is made to appear larger than its physical value via the current-tap path while the common voltage is maintained.
Combination of an adhesive tape for wrapping elongate objects and the object concerned, wherein the adhesive tape with a support (3, 4) is further equipped with an adhesive coating applied to one side or both sides, and a marking, characterized in that the marking is designed as a positioning aid during wrapping, and particularly in such a way that a following wrap (8 or 9, 10) is glued with a predetermined overlap defined by the positioning aid onto each preceding wrap (7 or 8, 9) which is glued fixedly to the object, wherein the support (3, 4) is furnished with the adhesive coating over the entire surface thereof, or the adhesive coating is applied to the support (3, 4) in the form of a strip, provided it is ensured that the individual wraps (7 or 8, 9, 10) are glued fixedly to the object.
A salt or cocrystal which is 4-hydroxybenzoate of heptadecan-9-yl 8-((2-hydroxyethyl)amino)octanoate ("Compound 1"), and which has a melting point of 50 °C or greater, wherein the salt or cocrystal exhibits an X-ray powder diffraction pattern obtained using Cu Kα radiation, having two, three, four, or more characteristic peaks expressed in degrees 2-theta (+/- 0.2) selected from the group consisting of 4.5, 6.8, 9.1, 11.4, and 13.7.