mhurhangee/ep-ind-claims huggingface dataset:
Wind turbine comprising a tower, a nacelle, a gearing that couples the nacelle to the tower for adjusting the yaw angle of the nacelle with respect to the tower by rotating the nacelle around a yaw axis and a ring shaped collecting tray extending around the yaw axis to collect lubricant dripping from the gearing, characterized in that the collecting tray is supported to be rotatable around the yaw axis with respect to the tower and the nacelle.
A semiconductor structure, comprising: an insulation material layer having a top surface and a bottom surface; a top semiconductor layer having a plurality of transistor regions formed on the top surface of the insulation material layer; isolation structures formed in the top semiconductor layer between adjacent transistor regions; a first dielectric layer formed over the top semiconductor layer; a first heat-conducting layer, having a thermal conductivity higher than a thermal conductivity of the isolation structures, and passing through the insulation material layer, the isolation structure in the top semiconductor layer, and the first dielectric layer; a second dielectric layer formed over the first dielectric layer; an interconnect structure formed in the second dielectric layer; and a bottom layer conductive via, passing through the first heat-conducting layer and a partial thickness of the second dielectric layer, and electrically connected with the interconnect structure; and wherein preferably: the first heat-conducting layer is made of one of polysilicon and amorphous silicon. an insulation material layer having a top surface and a bottom surface; a top semiconductor layer having a plurality of transistor regions formed on the top surface of the insulation material layer; isolation structures formed in the top semiconductor layer between adjacent transistor regions; a first dielectric layer formed over the top semiconductor layer; a first heat-conducting layer, having a thermal conductivity higher than a thermal conductivity of the isolation structures, and passing through the insulation material layer, the isolation structure in the top semiconductor layer, and the first dielectric layer; a second dielectric layer formed over the first dielectric layer; an interconnect structure formed in the second dielectric layer; and a bottom layer conductive via, passing through the first heat-conducting layer and a partial thickness of the second dielectric layer, and electrically connected with the interconnect structure; and wherein preferably: the first heat-conducting layer is made of one of polysilicon and amorphous silicon.
A grid structure for a fluidized bed gasifier, said gasifier comprising: - an atmospheric or pressurized gasification reactor defined by vertical walls, inside which a fluidized bed is maintained, - a wind box located at the lower part of the gasifier below the reactor, - a grid, which is arranged between the reactor and the wind box on the upper surface of the wind box and comprises a number of substantially concentric plate rings, characterized in that a first set of concentric plate rings is arranged at various levels to form a conical downwards tapering structure having a supporting structure which comprises an annular supporting beam below the set of rings and supporting beams extending radially therefrom, which beams at their outer ends are borne onto the walls of the wind box by means of sliding supports for bearing the supporting structure, and that a second group of rings is formed by rings arranged between the first rings and having nozzle openings for leading air or other fluidizing gas into the reactor. - an atmospheric or pressurized gasification reactor defined by vertical walls, inside which a fluidized bed is maintained, - a wind box located at the lower part of the gasifier below the reactor, - a grid, which is arranged between the reactor and the wind box on the upper surface of the wind box and comprises a number of substantially concentric plate rings,
A prosthesis delivery system comprising: a handle assembly including a rotatable control knob; an intermediate shaft extending from the handle assembly and having an interior lumen; an introducer shaft having an interior lumen and an introducer tip, wherein the introducer shaft is connected to a hub secured to the intermediate shaft and configured to slide in a proximal and distal direction along the intermediate shaft; an inner shaft extending from the handle assembly and configured to be moved in a proximal and distal direction by the rotatable control knob; and a capsule including a proximal end, a distal end and a capsule tip, wherein the distal end of the capsule is connected to a distal end of the inner shaft, and wherein the capsule is configured to contain a prosthesis device; wherein the capsule is configured to be advanced by rotating the control knob on the handle such that the inner shaft moves in the distal direction, the capsule being configured to be retracted proximally by rotating the control knob on the handle in a direction opposite to the direction that advances the capsule. a handle assembly including a rotatable control knob; an intermediate shaft extending from the handle assembly and having an interior lumen; an introducer shaft having an interior lumen and an introducer tip, wherein the introducer shaft is connected to a hub secured to the intermediate shaft and configured to slide in a proximal and distal direction along the intermediate shaft; an inner shaft extending from the handle assembly and configured to be moved in a proximal and distal direction by the rotatable control knob; and a capsule including a proximal end, a distal end and a capsule tip, wherein the distal end of the capsule is connected to a distal end of the inner shaft, and wherein the capsule is configured to contain a prosthesis device; wherein the capsule is configured to be advanced by rotating the control knob on the handle such that the inner shaft moves in the distal direction, the capsule being configured to be retracted proximally by rotating the control knob on the handle in a direction opposite to the direction that advances the capsule.
A thin film transistor, comprising: a substrate, an active layer, a gate insulating layer, a gate electrode and source/drain electrodes, wherein the gate insulating layer comprises a first gate insulating layer in direct contact with the active layer, characterized in that the active layer is a polysilicon layer and the first gate insulating layer is a SiN x thin film with a density of 3.2-3.5 g·cm -3, a refractive index of 1.43-1.45, and a dielectric strength greater than 1×10 7 V·cm -1. a substrate, an active layer, a gate insulating layer, a gate electrode and source/drain electrodes, wherein the gate insulating layer comprises a first gate insulating layer in direct contact with the active layer, characterized in that the active layer is a polysilicon layer and the first gate insulating layer is a SiN x thin film with a density of 3.2-3.5 g·cm -3, a refractive index of 1.43-1.45, and a dielectric strength greater than 1×10 7 V·cm -1.
Cooling process using a heat transfer fluid for a first piece of equipment (2, 6, 50, 52, 54, 100, 101, 102) of a motor vehicle, this process regulating the flow rate of the heat transfer fluid of a thermal system comprising second equipment for controlling this cooling (1, 3, 4, 7, 12, 14, 22, 30, 56, 62, 64), this method comprising a step (201, 202, 203, 204) of determining an instantaneous temperature (t201, t202, t203, boa) of the first equipment (2, 6, 50, 52, 54, 100, 101, 102), and a step of regulating the flow rate of the heat transfer fluid as a function of the instantaneous temperature (t201, t202, t203, t204) when it is lower than a first predetermined threshold (S11, S12, S14, S14) function of the first equipment (2, 6, 50, 52, 54, 100, 101, 102), and a step of detecting a failure of the second equipment (1, 3, 4, 7, 12, 14, 22, 30, 56, 62, 64), characterized in that in the event of detection of the failure, the method comprises a step of monitoring the instantaneous temperature (t201, t202, t203, t204) which, if it exceeds a second threshold predetermined (S21, S22, S23, S24) greater than the first threshold (S11, S12, S14, S14), controls the flow rate of the fluid to its maximum (Dm") until the instantaneous temperature a201, t202, -03, t204) drops below a third predetermined threshold (S31, S32, S33, S34) lower than the first threshold (S11, S12, S14, S14).
A liquid deodorant production method comprising: a mixing step of mixing earthworm castings with water; and characterized in that the method comprises a collecting step of collecting vaporized water generated from a mixture obtained in the mixing step to obtain a liquid, wherein the vaporized water is collected with a dehumidifier. a mixing step of mixing earthworm castings with water; and characterized in that the method comprises a collecting step of collecting vaporized water generated from a mixture obtained in the mixing step to obtain a liquid,
A method comprising: determining, by a wireless dockee, WD, one or more wireless docking environments, WDNs, associated with a wireless docking center, WDC, wherein each WDN of the one or more WDNs corresponds to at least one peripheral function, PF, of one or more PFs that are each associated with the WDC, and wherein determining the one or more WDNs comprises receiving, by the WD and from the WDC, a message that identifies the one or more WDNs associated with the WDC; selecting, by the WD, a particular WDN of the one or more WDNs associated with the WDC; and wirelessly accessing, by the WD, the at least one PF corresponding to the selected particular WDN of the one or more WDNs associated with the WDC. determining, by a wireless dockee, WD, one or more wireless docking environments, WDNs, associated with a wireless docking center, WDC, wherein each WDN of the one or more WDNs corresponds to at least one peripheral function, PF, of one or more PFs that are each associated with the WDC, and wherein determining the one or more WDNs comprises receiving, by the WD and from the WDC, a message that identifies the one or more WDNs associated with the WDC; selecting, by the WD, a particular WDN of the one or more WDNs associated with the WDC; and wirelessly accessing, by the WD, the at least one PF corresponding to the selected particular WDN of the one or more WDNs associated with the WDC.
A fall-off structure for a switch configured so that a switch assembly including a plurality of switch components falls off from a switch mount when an impact is received, the fall-off structure for a switch including: a breakable component that has brittleness and is configured to break when an impact is applied to the switch assembly, wherein the breakable component is a dedicated component independent from another component of the switch assembly, the fall-off structure being characterized in that the switch assembly includes an accommodation portion including an entrance opening and a stopper surface and configured to allow the breakable component to enter the entrance opening and slidably move to the stopper surface and to hold the breakable component. a breakable component that has brittleness and is configured to break when an impact is applied to the switch assembly, wherein the breakable component is a dedicated component independent from another component of the switch assembly, the fall-off structure being characterized in that the switch assembly includes an accommodation portion including an entrance opening and a stopper surface and configured to allow the breakable component to enter the entrance opening and slidably move to the stopper surface and to hold the breakable component.
A composition comprising: a tumor-associated antigen protein or fragment thereof fused to a peptide of 1-20 amino acids in length that contains acceptor amino acids for αGal epitopes, and wherein the peptide of 1-20 amino acids in length is chemically modified to include two or more αGal epitopes at said acceptor amino acids.
Procedure for the installation of snow or ice gripping means on the tyre of a vehicle that comprises a container fixed to the vehicle, said container comprises gripping means, with means to unroll said gripping means on vehicle tyre, at least one pressure roller characterised in that it comprises at least two lateral pressure heads (10, 11), with the cited means for unrolling comprising at least one positioning roller, all located above a tyre and because it comprises the following phases • in a first phase gripping means, pressure roller and first lateral pressure head are positioned over the tyre, • in a second phase the vehicle is started and slowly moved forward and unrolls the gripping means from positioning roller until the end is reached, overlapping part of the same gripping means, • in a third phase second lateral pressure head is installed to fix the gripping means to the tyre, • in a fourth phase, positioning roller and pressure roller return to the initial position. • in a first phase gripping means, pressure roller and first lateral pressure head are positioned over the tyre, • in a second phase the vehicle is started and slowly moved forward and unrolls the gripping means from positioning roller until the end is reached, overlapping part of the same gripping means, • in a third phase second lateral pressure head is installed to fix the gripping means to the tyre, • in a fourth phase, positioning roller and pressure roller return to the initial position.
Heat pipe comprising a hermetically sealed enclosure containing: - a condenser; - a porous material; - an evaporator; - a heat-transfer fluid condensatable under the operating conditions of the heat pipe; - a gas separate from the heat-transfer fluid, whose condensation temperature is higher than the condensation temperature of the heat-transfer fluid under the operating conditions of the heat pipe, which gas forms a condenser blanking device activatable depending on the temperature and pressure conditions prevailing in the heat pipe, characterized in that the porous material is adsorbent or absorbent; the gas is adsorbable or absorbable by the porous material; and the porous material stocking the adsorbable or absorbale gas when the temperature of the heat pipe drops, and releases it by desorption when the temperature of the heat pipe increases. - a condenser; - a porous material; - an evaporator; - a heat-transfer fluid condensatable under the operating conditions of the heat pipe; - a gas separate from the heat-transfer fluid, whose condensation temperature is higher than the condensation temperature of the heat-transfer fluid under the operating conditions of the heat pipe, which gas forms a condenser blanking device activatable depending on the temperature and pressure conditions prevailing in the heat pipe, characterized in that the porous material is adsorbent or absorbent; the gas is adsorbable or absorbable by the porous material; and the porous material stocking the adsorbable or absorbale gas when the temperature of the heat pipe drops, and releases it by desorption when the temperature of the heat pipe increases.
An evolved gas analyzing method comprising: a first measurement step of disposing a first sample containing a measurement target material and a non-measurement target material in a sample chamber, heating the first sample at a predetermined temperature programming rate and detecting the amount of gas evolved from the first sample in a measurement chamber intercommunicating with the sample chamber; and a second measurement step of disposing a second sample containing the non-measurement target material in the sample chamber, heating the second sample at the same temperature programming rate as the first measurement step, and detecting the amount of gas evolved from the second sample in the measurement chamber intercommunicating with the sample chamber, wherein the evolved gas amounts of the first and second samples are compared with each other on the basis of detected data of the first and second measurement steps, wherein when the respective measurement steps are carried out while the measurement chamber is kept under a vacuum atmosphere, characterized in that, the evolved gas analyzing method comprises a monitoring step of monitoring the temperature of each sample disposed in the sample chamber and the degree of vacuum in the measurement chamber, a heating step of heating the sample disposed in the sample chamber until the temperature of the sample is increased to a predetermined temperature, and a starting step of starting each of the measurement steps at the time when the degree of vacuum in the measurement chamber is equal to a predetermined degree of vacuum. a first measurement step of disposing a first sample containing a measurement target material and a non-measurement target material in a sample chamber, heating the first sample at a predetermined temperature programming rate and detecting the amount of gas evolved from the first sample in a measurement chamber intercommunicating with the sample chamber; and a second measurement step of disposing a second sample containing the non-measurement target material in the sample chamber, heating the second sample at the same temperature programming rate as the first measurement step, and detecting the amount of gas evolved from the second sample in the measurement chamber intercommunicating with the sample chamber, wherein the evolved gas amounts of the first and second samples are compared with each other on the basis of detected data of the first and second measurement steps,
A compound according to any of formulae -: or any of formulae -,,,, -, - and - or a pharmaceutically acceptable salt, solvate, phosphate, tautomeric form or polymorphic form thereof, wherein: each of Y and Z is independently -O R 1, -S R 1, -N R 1 R 2, or an N-linked or O-linked amino acid residue; each R 1 is independently hydrogen, alkyl, heteroalkyl, aryl, heteroaryl, cycloalkyl, arylalkyl, heteroarylalkyl, alkylcarbonylthioalkyl, alkoxylcarbonylalkyl, alkoxylcarbonylthioalkyl or hydroxylalkylcarbonylthioalkyl and each R 2 is independently hydrogen or alkyl; or R 1 and R 2, together with the atoms to which they are attached, combine to form a 3-10 membered heterocyclic ring; with the proviso that when Y is -OPh or -OPhCl; Z is -NHCH(CH 3)C OCH 3 or -NHCH(CH 3)C OBn, then B is not adenine or thymine. each of Y and Z is independently -O R 1, -S R 1, -N R 1 R 2, or an N-linked or O-linked amino acid residue; each R 1 is independently hydrogen, alkyl, heteroalkyl, aryl, heteroaryl, cycloalkyl, arylalkyl, heteroarylalkyl, alkylcarbonylthioalkyl, alkoxylcarbonylalkyl, alkoxylcarbonylthioalkyl or hydroxylalkylcarbonylthioalkyl and each R 2 is independently hydrogen or alkyl; or R 1 and R 2, together with the atoms to which they are attached, combine to form a 3-10 membered heterocyclic ring; with the proviso that when Y is -OPh or -OPhCl; Z is -NHCH(CH 3)C OCH 3 or -NHCH(CH 3)C OBn, then B is not adenine or thymine.
A method for robust wireless radio transmission, the method being performed by a network node, the method comprising: acquiring data to be transmitted on a wireless radio link from the network node to a remote radio unit; separating said data into a radio access technology, RAT, payload part (201b, 121e, 202b, 122e) and a management data part (201c, 121f, 202c, 122f); characterized in that the method comprises acquiring channel condition values for said wireless radio link; dynamically allocating resources between said RAT payload part (201b, 121e, 202b, 122e) and said management data part (201c, 121f, 202c, 122f) according to said channel condition values, wherein the resource allocation is performed so as to prioritize transmission of the management data part (201c, 121f, 202c, 122f) over the RAT payload part (201b, 121e, 202b, 122e), and/or wherein the resource allocation is performed such that the management data part (201c, 121f, 202c, 122f) is guaranteed transport over said wireless radio link; and transmitting said data over said wireless radio link using said allocated resources. acquiring data to be transmitted on a wireless radio link from the network node to a remote radio unit; separating said data into a radio access technology, RAT, payload part (201b, 121e, 202b, 122e) and a management data part (201c, 121f, 202c, 122f); acquiring channel condition values for said wireless radio link; dynamically allocating resources between said RAT payload part (201b, 121e, 202b, 122e) and said management data part (201c, 121f, 202c, 122f) according to said channel condition values, wherein the resource allocation is performed so as to prioritize transmission of the management data part (201c, 121f, 202c, 122f) over the RAT payload part (201b, 121e, 202b, 122e), and/or wherein the resource allocation is performed such that the management data part (201c, 121f, 202c, 122f) is guaranteed transport over said wireless radio link; and transmitting said data over said wireless radio link using said allocated resources.
Electric circuit for a windmill including a driven generator with rotor and stator, independent rectifier circuits, independent direct current circuits, and independent inverters, where the electric outputs of the generator are connected to the independent rectifier circuits, where the independent rectifier circuits are connected through the independent direct current circuits to the independent inverters which are connected to a supply network, wherein - the stator of the generator is divided into at least two separate sections that each is connected to at least one of the independent rectifier circuits; and - each of the independent rectifier circuits is connected to at least one of the independent direct current circuits; - where each of the independent direct current circuits is connected to the input of at least one of the independent inverters; and - where the outputs of each of the independent inverters are connected to a supply network, wherein each group of the associated independent rectifier circuit, independent direct current circuit and independent inverter forms a partial circuit, wherein the independent inverters include means that are able to adapt current and voltage to the current and voltage of the supply network, said electric circuit being characterized in that one ore more of the partial circuits is cut out effecting a reduction of a yield of the electric production of the windmill, whereby adapting the current conditions in connection with the supply network where an overload occurs periodically. - the stator of the generator is divided into at least two separate sections that each is connected to at least one of the independent rectifier circuits; and - each of the independent rectifier circuits is connected to at least one of the independent direct current circuits; - where each of the independent direct current circuits is connected to the input of at least one of the independent inverters; and - where the outputs of each of the independent inverters are connected to a supply network, wherein each group of the associated independent rectifier circuit, independent direct current circuit and independent inverter forms a partial circuit, wherein the independent inverters include means that are able to adapt current and voltage to the current and voltage of the supply network, wherein each group of the associated independent rectifier circuit, independent direct current circuit and independent inverter forms a partial circuit, wherein the independent inverters include means that are able to adapt current and voltage to the current and voltage of the supply network, one ore more of the partial circuits is cut out effecting a reduction of a yield of the electric production of the windmill, whereby adapting the current conditions in connection with the supply network where an overload occurs periodically.