mhurhangee/ep-ind-claims huggingface dataset:
A multilayer tubular structure intended for transporting a heat-transfer fluid, said multilayer tubular structure comprising: at least one layer comprising a composition comprising predominantly at least one long-chain polyamide having 10 to 15 carbon atoms per nitrogen atom and comprising at least 50% of aliphatic units relative to the sum of the units present in said long-chain polyamide, at least one layer situated underneath said layer comprising a composition comprising predominantly at least one polyamide having 4 to 9 carbon atoms per nitrogen atom, said polyamide comprising at least 50% aliphatic units relative to the sum of the units present in said polyamide, said composition comprising up to 12% polyolefins, in particular up to 6% by weight of polyolefin, relative to the total weight of said composition, and up to 2% by weight of at least one plasticizer relative to the total weight of said composition, optionally, a layer comprising a composition as defined for composition, or comprising a composition comprising predominantly a short-chain polyamide with 4 to 7 carbon atoms per nitrogen atom and at least 20%, preferably at least 25% by weight of at least one polyolefin relative to the total weight of said composition, or a composition comprising a polyamide comprising at least 50% semi-aromatic units, said layer being devoid of continuous fibers. said layer being in contact with said transported fluid when said layer is not present, and said layer(s) representing at least 50% of the total thickness of the tube. at least one layer comprising a composition comprising predominantly at least one long-chain polyamide having 10 to 15 carbon atoms per nitrogen atom and comprising at least 50% of aliphatic units relative to the sum of the units present in said long-chain polyamide, at least one layer situated underneath said layer comprising a composition comprising predominantly at least one polyamide having 4 to 9 carbon atoms per nitrogen atom, said polyamide comprising at least 50% aliphatic units relative to the sum of the units present in said polyamide, said composition comprising up to 12% polyolefins, in particular up to 6% by weight of polyolefin, relative to the total weight of said composition, and up to 2% by weight of at least one plasticizer relative to the total weight of said composition, optionally, a layer comprising a composition as defined for composition, or comprising a composition comprising predominantly a short-chain polyamide with 4 to 7 carbon atoms per nitrogen atom and at least 20%, preferably at least 25% by weight of at least one polyolefin relative to the total weight of said composition, or a composition comprising a polyamide comprising at least 50% semi-aromatic units, said layer being devoid of continuous fibers. said layer being in contact with said transported fluid when said layer is not present, and said layer(s) representing at least 50% of the total thickness of the tube.
A method of applying user equipment cell selection bias in a wireless communication network, said method comprising: Determining at user equipment, for a cell in said wireless communication network, an indication of cell selection bias associated with a user equipment antenna configuration based on an indication of cell selection bias received from a network control node; assessing, at said user equipment, antenna configuration being implemented by said user equipment; and applying, at said user equipment, a cell selection bias in dependence upon said implemented antenna configuration, and wherein said indication of cell selection bias comprises an offset to be applied in the case of each user equipment antenna configuration. Determining at user equipment, for a cell in said wireless communication network, an indication of cell selection bias associated with a user equipment antenna configuration based on an indication of cell selection bias received from a network control node; assessing, at said user equipment, antenna configuration being implemented by said user equipment; and applying, at said user equipment, a cell selection bias in dependence upon said implemented antenna configuration, and wherein said indication of cell selection bias comprises an offset to be applied in the case of each user equipment antenna configuration.
A compound of general formula I or II wherein R 1 and R 2 groups are individually selected from propyl, isopropyl, n-butyl, isobutyl, isovaleryl, propargyl, allyl, prenyl, geranyl, and other long aliphatic chains with chain length from C 5 -C 20, acetyl, benzyl, benzoyl and butanoyl, optionally substituted at one or more positions by chloro, fluoro, iodo, or nitro.
Electronic component comprising a functional body provided with a reflection structure, wherein the reflection structure is arranged and designed to reflect radiation that impinges on the electronic component from outside away from the functional body, wherein the electronic component is radiation-passive, wherein the electronic component comprises a protective layer, which is arranged on the reflection structure, wherein the protective layer comprises a pigment, and wherein the pigment is designed to adapt the colour of the electronic component to that of surroundings of the electronic component, and wherein the electronic component comprises a barrier layer, which is arranged between the functional body and the reflection structure.
Method for diagnosing a proportional oxygen probe positioned downstream of the post-treatment system of a control-ignition internal combustion engine also equipped with an oxygen probe positioned downstream of the post-treatment system, in which method the richness of the exhaust gases is regulated with a richness setpoint that is variable as a function of the predefined conditions of the catalytic converter and of the measurement from the proportional upstream oxygen probe characterized in that it comprises the following steps: determining whether the running conditions are compatible with carrying out a diagnosis, when these conditions are satisfied, the internal combustion engine is made to operate in such a way as to obtain at least three alternations of periods of emission of exhaust gas with rich mixture and of periods of emission of exhaust gas with lean mixture and, for each period, the richness of the exhaust gas is measured using the upstream oxygen probe, then corrected richness measurements are determined by high-pass filtering the measurements of the richness of the exhaust gases using the upstream oxygen probe with a cutoff frequency equal to the inverse of the period of emission of exhaust gas with rich mixture and of the period of emission of exhaust gas with lean mixture, a diagnostic criterion for the upstream oxygen probe is calculated as the mean, over the number of alternations, of the difference for each period between the corrected maximum richness measurement with rich mixture and the minimum corrected richness measurement with lean mixture, then if the diagnostic criterion is above a stored value, the probe is determined to be in good working order, if not, the probe is determined to be malfunctioning. determining whether the running conditions are compatible with carrying out a diagnosis, when these conditions are satisfied, the internal combustion engine is made to operate in such a way as to obtain at least three alternations of periods of emission of exhaust gas with rich mixture and of periods of emission of exhaust gas with lean mixture and, for each period, the richness of the exhaust gas is measured using the upstream oxygen probe, then corrected richness measurements are determined by high-pass filtering the measurements of the richness of the exhaust gases using the upstream oxygen probe with a cutoff frequency equal to the inverse of the period of emission of exhaust gas with rich mixture and of the period of emission of exhaust gas with lean mixture, a diagnostic criterion for the upstream oxygen probe is calculated as the mean, over the number of alternations, of the difference for each period between the corrected maximum richness measurement with rich mixture and the minimum corrected richness measurement with lean mixture, then if the diagnostic criterion is above a stored value, the probe is determined to be in good working order, if not, the probe is determined to be malfunctioning.
An assembly for fixing a rotor blade of a wind power plant by holding the rotor blade at a specific pitch angle (αP) comprising a rotor blade, a pitch adjusting means, a bearing for the rotor blade and a brake disk, characterized in that the assembly further comprises an electro-mechanical brake configured to apply a controlled brake force to the brake disk that is a function of the pitch angle (αP) of the rotor blade and wherein the electro-mechanical brake is configured to apply a first controlled brake force to the brake disk in a first position of the rotor blade and a second controlled brake force in a second position of the rotor blade.
A showerhead comprising a housing (102, 104) including a chamber in fluid communication with a fluid inlet, a first bank of nozzles, and a second bank of nozzles; and a massage mode assembly at least partially received within the chamber, the massage mode assembly comprising a turbine having a plurality of blades; a cam connected to the turbine; and a shutter connected to the cam, wherein movement of the shutter is restricted along a single axis; and as the turbine rotates in response to fluid flow impacting the blades, the cam causes the shutter to alternatingly cover and uncover the first bank of nozzles and the second bank of nozzles, and thereby fluidly connect and disconnect the first bank of nozzles and the second bank of nozzles from the fluid inlet in alternation, such that all fluid from the fluid inlet flows through the first bank of nozzles when the second bank of nozzles is covered by the shutter or flows through the second bank of nozzles when the first bank of nozzles is covered by the shutter. a housing (102, 104) including a chamber in fluid communication with a fluid inlet, a first bank of nozzles, and a second bank of nozzles; and a massage mode assembly at least partially received within the chamber, the massage mode assembly comprising a turbine having a plurality of blades; a cam connected to the turbine; and a shutter connected to the cam, wherein a turbine having a plurality of blades; a cam connected to the turbine; and a shutter connected to the cam, wherein movement of the shutter is restricted along a single axis; and as the turbine rotates in response to fluid flow impacting the blades, the cam causes the shutter to alternatingly cover and uncover the first bank of nozzles and the second bank of nozzles, and thereby fluidly connect and disconnect the first bank of nozzles and the second bank of nozzles from the fluid inlet in alternation, such that all fluid from the fluid inlet flows through the first bank of nozzles when the second bank of nozzles is covered by the shutter or flows through the second bank of nozzles when the first bank of nozzles is covered by the shutter.
Cooling system for a vehicle drive, in particular for a hybrid or electric vehicle drive, having - a cooling circuit for cooling at least one electrical component (5, 6) of the vehicle, - at least one functional circuit (HTK, HK) for cooling an internal combustion engine drive unit of the vehicle and/or for controlling the temperature of the interior of the vehicle, characterized in that - the cooling circuit and the at least one functional circuit (HTK, HK) are connected to one another by means of a heat pump. - a cooling circuit for cooling at least one electrical component (5, 6) of the vehicle, - at least one functional circuit (HTK, HK) for cooling an internal combustion engine drive unit of the vehicle and/or for controlling the temperature of the interior of the vehicle, - the cooling circuit and the at least one functional circuit (HTK, HK) are connected to one another by means of a heat pump.
A semiconductor light emitting device comprising: a semiconductor stacked layer having a top surface and a plurality of peripheral surfaces; a light transmissive light guide member disposed on the semiconductor stacked layer; a light reflective member disposed on the light transmissive light guide member; wherein a light extraction surface of the light emitting device is perpendicular to the top surface of the semiconductor stacked layer, wherein the light emitting device further comprises a wavelength conversion portion and a growth substrate of the semiconductor stacked layer and the wavelength conversion portion is directly joined to the growth substrate; wherein the light emitting device further comprises a light reflective package that has an open portion corresponding to the light extraction surface and surrounds peripheral surfaces of the semiconductor stacked layer, the wavelength conversion portion, and the light reflective member. a semiconductor stacked layer having a top surface and a plurality of peripheral surfaces; a light transmissive light guide member disposed on the semiconductor stacked layer; a light reflective member disposed on the light transmissive light guide member; wherein a light extraction surface of the light emitting device is perpendicular to the top surface of the semiconductor stacked layer, wherein the light emitting device further comprises a wavelength conversion portion and a growth substrate of the semiconductor stacked layer and the wavelength conversion portion is directly joined to the growth substrate; wherein the light emitting device further comprises a light reflective package that has an open portion corresponding to the light extraction surface and surrounds peripheral surfaces of the semiconductor stacked layer, the wavelength conversion portion, and the light reflective member.
A sealing drape (101, 201, 301, 401, 501, 601) for treating a tissue site, the sealing drape (101, 201, 301, 401, 501, 601) comprising: an interior surface and an external surface, the interior surface for positioning adjacent a peripheral surface surrounding the tissue site and to overlap the peripheral surface to provide a sealed space between the sealing drape (101, 201, 301, 401, 501, 601) and the tissue site; a sealing material, the sealing material comprising a fluid permeable hydrophobic material free of hydrophilic components; characterized in that the sealing drape further comprises an absorbent material (136, 236, 336, 436) disposed in the sealing material, the sealing material being positioned between the interior surface of the sealing drape (101, 201, 301, 401, 501, 601) and the absorbent material (136, 236, 336, 436), the absorbent material (136, 236, 336, 436) for absorbing fluid communicated through the sealing material. an interior surface and an external surface, the interior surface for positioning adjacent a peripheral surface surrounding the tissue site and to overlap the peripheral surface to provide a sealed space between the sealing drape (101, 201, 301, 401, 501, 601) and the tissue site; a sealing material, the sealing material comprising a fluid permeable hydrophobic material free of hydrophilic components; characterized in that the sealing drape further comprises an absorbent material (136, 236, 336, 436) disposed in the sealing material, the sealing material being positioned between the interior surface of the sealing drape (101, 201, 301, 401, 501, 601) and the absorbent material (136, 236, 336, 436), the absorbent material (136, 236, 336, 436) for absorbing fluid communicated through the sealing material.
A laundry dryer comprising a body; a drum wherein the laundry to be dried is placed; an air circulation duct providing the delivery of the drying air onto the laundry in the drum; a heat exchanger that is disposed on the air circulation duct; at least one filter that holds fiber and lints in the drying air; a tank wherein the condensed water is stored; a washing pump and a washing line that enable the water to be taken from the tank and to be delivered onto the heat exchanger and/or the filter; a sump wherein the water taken from the tank and then draining from the heat exchanger and/or the filter and mixed with fiber and lints accumulates; a discharge pump that delivers the water accumulated in the sump to the tank; a vertical discharge line that is disposed between the discharge pump and the tank, and a control unit that controls the operation of the washing pump and the discharge pump, characterized in that during the washing process wherein fibers and lint accumulated on the heat exchanger and/or the filter are cleaned, and wherein the washing pump and the discharge pump are operated together, the control unit is configured to stop washing pump at least once, and stops the discharge pump after operating the same for a predetermined time until the water in the sump is transferred to the water discharge line, thus enabling the water in the discharge line to flow in the reverse direction with the effect of the gravity and to sweep the fiber and lint accumulated at the suction port of the discharge pump towards the sump.
Method for the sterilisation or pasteurisation of products filled into containers by heating, while using a system which comprises multiple consecutive treatment zones (H1-H4; P1-P4; C4-C1) in a transport direction of the containers, which form heating zones, zones of a pasteurisation region, and cooling zones, and in which zones the respective container is filled with a liquid treatment medium, the temperature of which increases from zone to zone in the pre-heating zones with respect to the transport direction, reaches a sterilisation or pasteurisation temperature in the zones of the pasteurisation area, and decreases from zone to zone in the cooling zones with respect to the transport direction, wherein the thermal energy of the treatment medium accumulating during the treatment at a low temperature level is used by means of at least one heat pump to heat the treatment medium to a higher treatment level, characterised in that the thermal energy of the treatment medium at the low temperature level is used to heat the treatment medium by means of a heating circuit, which comprises at least one heat pump, in a buffer tank, which conveys the treatment medium at a temperature which corresponds at least to the pasteurisation temperature or sterilisation temperature, and the buffer tank provides this treatment medium directly at least for one zone of the pasteurisation region.
Holding device for holding a scale in an opening in a work surface, wherein the holding device has at least one fixing means for fixing the holding device - preferably redetachably - to the work surface.
An electrical power system comprising: a. at least one battery cell comprising: i. a cell body; ii. a positive electrical connector for connection to a power transfer means; iii. a negative electrical connector for connection to said power transfer means; iv. a load drawing power from said cell body through the power transfer means; and b. a means for detecting degradation of at least one of said positive and said negative electrical connectors, wherein said means for detecting degradation of said at least one of the positive and negative electrical connectors comprises an at least one cell body temperature sensor disposed on the cell body and an at least one electrical connector temperature sensor sufficiently close to the at least one of the positive and negative connectors, to measure the temperature of the at least one of the connectors, and wherein the means for detecting degradation of the at least one of the connectors further comprises a connector current sensor and a software driven comparator in electrical communication with said at least one cell body temperature sensor, said at least one electrical connector temperature sensor and said connector current sensor, wherein said software driven comparator includes means for calculating, at a point in time, a difference between a measured cell body temperature and a measured at least one electrical connector temperature at a measured connector current at said point in time. a. at least one battery cell comprising: i. a cell body; ii. a positive electrical connector for connection to a power transfer means; iii. a negative electrical connector for connection to said power transfer means; iv. a load drawing power from said cell body through the power transfer means; and i. a cell body; ii. a positive electrical connector for connection to a power transfer means; iii. a negative electrical connector for connection to said power transfer means; iv. a load drawing power from said cell body through the power transfer means; and b. a means for detecting degradation of at least one of said positive and said negative electrical connectors, wherein said means for detecting degradation of said at least one of the positive and negative electrical connectors comprises an at least one cell body temperature sensor disposed on the cell body and an at least one electrical connector temperature sensor sufficiently close to the at least one of the positive and negative connectors, to measure the temperature of the at least one of the connectors, and wherein the means for detecting degradation of the at least one of the connectors further comprises a connector current sensor and a software driven comparator in electrical communication with said at least one cell body temperature sensor, said at least one electrical connector temperature sensor and said connector current sensor, wherein said software driven comparator includes means for calculating, at a point in time, a difference between a measured cell body temperature and a measured at least one electrical connector temperature at a measured connector current at said point in time.
A method for processing a tunnel packet, comprising: receiving, by a tunnel ingress device, a data packet; obtaining a dynamic identifier; performing tunnel encapsulation on the data packet, wherein the tunnel-encapsulated packet header includes an Internet Protocol IP address of the tunnel ingress device, an IP address of a tunnel egress device, and the dynamic identifier, so that each tunnel-encapsulated data packet has a different triplet; and sending the tunnel-encapsulated data packet, so that when the tunnel-encapsulated data packet is fragmented, the tunnel egress device may correctly reassemble the tunnel-encapsulated data packet according to the IP address of the tunnel ingress device, the IP address of the tunnel egress device, and the dynamic identifier; wherein the dynamic identifier comprises a time stamp, an ascending or descending integer, or a random number. receiving, by a tunnel ingress device, a data packet; obtaining a dynamic identifier; performing tunnel encapsulation on the data packet, wherein the tunnel-encapsulated packet header includes an Internet Protocol IP address of the tunnel ingress device, an IP address of a tunnel egress device, and the dynamic identifier, so that each tunnel-encapsulated data packet has a different triplet; and sending the tunnel-encapsulated data packet, so that when the tunnel-encapsulated data packet is fragmented, the tunnel egress device may correctly reassemble the tunnel-encapsulated data packet according to the IP address of the tunnel ingress device, the IP address of the tunnel egress device, and the dynamic identifier; wherein the dynamic identifier comprises a time stamp, an ascending or descending integer, or a random number.