mhurhangee/patent-ind-claim-en huggingface dataset:
A hermetic AC electric motor for a chiller compressor, wherein the motor is configured to be connected to an AC electric source that outputs high frequency harmonics, where the motor comprises: a stator ; and a rotor disposed within the stator and in selective magnetic communication with the stator, wherein a fluid gap exists between the rotor and the stator, wherein the fluid gap is configured to receive a cooling fluid, characterized in that the motor further comprises: a cage disposed on the rotor configured to receive high frequency harmonics, convert the high frequency harmonics to thermal energy in the cage and dissipate the thermal energy to the cooling fluid so as to thermally shunt the high frequency harmonics from the AC electric motor to the cooling fluid; wherein the rotor includes surface permanent magnets and the cage includes a plurality of aluminum wedges each wedge disposed between each surface permanent magnet. a stator ; and a rotor disposed within the stator and in selective magnetic communication with the stator, wherein a fluid gap exists between the rotor and the stator, wherein the fluid gap is configured to receive a cooling fluid, characterized in that the motor further comprises: a cage disposed on the rotor configured to receive high frequency harmonics, convert the high frequency harmonics to thermal energy in the cage and dissipate the thermal energy to the cooling fluid so as to thermally shunt the high frequency harmonics from the AC electric motor to the cooling fluid; wherein the rotor includes surface permanent magnets and the cage includes a plurality of aluminum wedges each wedge disposed between each surface permanent magnet. a cage disposed on the rotor configured to receive high frequency harmonics, convert the high frequency harmonics to thermal energy in the cage and dissipate the thermal energy to the cooling fluid so as to thermally shunt the high frequency harmonics from the AC electric motor to the cooling fluid; wherein the rotor includes surface permanent magnets and the cage includes a plurality of aluminum wedges each wedge disposed between each surface permanent magnet.
Cooking system comprising at least one cooking appliance that has at least one microwave heat source , and comprising at least one cooking container for receiving food , the cooking appliance comprising at least one cooking chamber that has at least one muffle and at least one support device arranged on the muffle for positioning the cooking container in the cooking chamber , and the cooking container having at least one base , at least four side walls arranged transversely to the base and comprising at least two opposing longitudinal sides and at least two opposing broad sides and, at transitions from the broad side to the longitudinal side , at least four corners and at least one container edge arranged on one side wall and comprising at least one side edge projecting outwards from the longitudinal side , and the support device having at least two horizontally extending rods , which are arranged at the same height on opposing side walls of the muffle , and each of the rods being suitable and designed for being used as a guide for a side edge , the side edge resting against the relevant rod at least in part, the corners having on the side walls at least one rounded portion and the corners each having on the container edge at least one rounded portion , the cooking container being made of a metal material, characterised in that , in order to maintain a minimum spacing between the cooking container and the muffle , the corners have on the side walls at least one rounded portion having an internal radius of at most 30 mm and the corners each have on the container edge at least one rounded portion having an external radius of at least 30 mm.
An assembly for a torch , characterized in that the assembly comprises: an electrode comprising a first metal; and an electrode holder comprising: a second metal different from the first metal; a proximal portion ; a distal portion ; and a central portion disposed between the proximal portion and the distal portion , the central portion comprising a plurality of radially extending protrusions ; characterised in that : an angle between a longitudinal axis of the assembly and an outer surface of at least one of the electrode holder and the electrode is between about five degrees and about fifteen degrees, and in that the electrode holder is molecularly bonded to the electrode , wherein molecular bonding means that atoms and/or electrons of the electrode holder interact with atoms and/or electrons of the electrode to form the molecular bond; and in that the first metal comprises tungsten and the second metal comprises copper. an electrode comprising a first metal; and an electrode holder comprising: a second metal different from the first metal; a proximal portion ; a distal portion ; and a central portion disposed between the proximal portion and the distal portion , the central portion comprising a plurality of radially extending protrusions ; a second metal different from the first metal; a proximal portion ; a distal portion ; and a central portion disposed between the proximal portion and the distal portion , the central portion comprising a plurality of radially extending protrusions ; an angle between a longitudinal axis of the assembly and an outer surface of at least one of the electrode holder and the electrode is between about five degrees and about fifteen degrees, and in that the electrode holder is molecularly bonded to the electrode , wherein molecular bonding means that atoms and/or electrons of the electrode holder interact with atoms and/or electrons of the electrode to form the molecular bond; and in that the first metal comprises tungsten and the second metal comprises copper.
A sensor front-end for processing a measurement signal (MS) from a sensing unit , the sensor front-end comprising an evaluation unit that is configured to - generate a stimulus signal (ST); - generate an output signal (OS) based on the stimulus signal (ST) and the measurement signal (MS) received from the sensing unit ; characterized in that the evaluation unit is further configured to 11 - generate a simulated measurement signal (MSS) from the stimulus signal (ST) by controlling an amplitude of the stimulus signal (ST) based on a predetermined control variable (CV); - generate a simulated output signal (OSS) based on the stimulus signal (ST) and the simulated measurement signal (MSS); and - determine an error condition based on a comparison of the simulated output signal (OSS) and the predetermined control variable (CV) or a signal derived from the predetermined control variable (CV). - generate a stimulus signal (ST); - generate an output signal (OS) based on the stimulus signal (ST) and the measurement signal (MS) received from the sensing unit ; - generate a simulated measurement signal (MSS) from the stimulus signal (ST) by controlling an amplitude of the stimulus signal (ST) based on a predetermined control variable (CV); - generate a simulated output signal (OSS) based on the stimulus signal (ST) and the simulated measurement signal (MSS); and - determine an error condition based on a comparison of the simulated output signal (OSS) and the predetermined control variable (CV) or a signal derived from the predetermined control variable (CV).
A bassoon comprising a bocal , a reed , an adjustment member placed between the bocal and the reed and which can be moved back and forth for tuning, wherein a first end of the adjustment member is connected to the bocal and a second end of the adjustment member is connected to the reed , and a screw , more particularly at least one butterfly screw, or a clamping ring, for fixing the position of the adjustment member within the bocal when the right and appropriate position is found characterized in that the outer surface of the first end of the adjustment member and the corresponding inner surface of end of the bocal are tapered (β) in such a way that the adjustment member can be placed into the bocal . a bocal , a reed , an adjustment member placed between the bocal and the reed and which can be moved back and forth for tuning, wherein a first end of the adjustment member is connected to the bocal and a second end of the adjustment member is connected to the reed , and a screw , more particularly at least one butterfly screw, or a clamping ring, for fixing the position of the adjustment member within the bocal when the right and appropriate position is found characterized in that the outer surface of the first end of the adjustment member and the corresponding inner surface of end of the bocal are tapered (β) in such a way that the adjustment member can be placed into the bocal .
An apparatus for coating carrier particles with guest particles, the apparatus comprising: a cylindrical processing vessel rotatable about its axis and having unperforated walls defining a chamber for receiving said particles; a hollow shaft extending within said chamber at least partly along the axis of the cylindrical processing vessel , the hollow shaft defining a gas flow path connected to a gas inlet , wherein the hollow shaft comprises one or more axially-extending slots or one or more axially-extending rows of apertures allowing fluid communication between the gas flow path and the chamber ; and a driving motor adapted to rotate the cylindrical processing vessel at a speed of between 100 and 4000 rpm. a cylindrical processing vessel rotatable about its axis and having unperforated walls defining a chamber for receiving said particles; a hollow shaft extending within said chamber at least partly along the axis of the cylindrical processing vessel , the hollow shaft defining a gas flow path connected to a gas inlet , wherein the hollow shaft comprises one or more axially-extending slots or one or more axially-extending rows of apertures allowing fluid communication between the gas flow path and the chamber ; and a driving motor adapted to rotate the cylindrical processing vessel at a speed of between 100 and 4000 rpm.
Crucible for growing silicon ingots, the crucible comprising: a vessel having a bottom wall and side walls surrounding an inner portion of the vessel; a coating layer applied to inner surfaces of the bottom wall and the side walls, the coating layer comprising a temperature-resistant material compatible with ingot growth from molten silicon; a patterned protrusion layer applied to the inner surface of the coating layer of the bottom wall, the patterned protrusion layer comprising: a matrix consisting of silicon nitride and adapted to form a non-wetting agent when in contact with the liquid silicon melt and further comprising particles of a nucleation enhancing material being one of Silica (SiO 2 ) sand, Silicon Carbide (SiC) and Carbon (C), which is adapted for forming a wetting agent when in contact with a liquid silicon melt such that a liquid silicon melt coming into contact with the particles may wet these particles, the patterned protrusion layer being applied in such manner and the particles being adapted such that the particles locally protrude from the matrix the particles of the nucleation enhancing material having sizes of between 100 μm and 1 mm. a vessel having a bottom wall and side walls surrounding an inner portion of the vessel; a coating layer applied to inner surfaces of the bottom wall and the side walls, the coating layer comprising a temperature-resistant material compatible with ingot growth from molten silicon; a patterned protrusion layer applied to the inner surface of the coating layer of the bottom wall, the patterned protrusion layer comprising: a matrix consisting of silicon nitride and adapted to form a non-wetting agent when in contact with the liquid silicon melt and further comprising particles of a nucleation enhancing material being one of Silica (SiO 2 ) sand, Silicon Carbide (SiC) and Carbon (C), which is adapted for forming a wetting agent when in contact with a liquid silicon melt such that a liquid silicon melt coming into contact with the particles may wet these particles, the patterned protrusion layer being applied in such manner and the particles being adapted such that the particles locally protrude from the matrix the particles of the nucleation enhancing material having sizes of between 100 μm and 1 mm. a matrix consisting of silicon nitride and adapted to form a non-wetting agent when in contact with the liquid silicon melt and further comprising particles of a nucleation enhancing material being one of Silica (SiO 2 ) sand, Silicon Carbide (SiC) and Carbon (C), which is adapted for forming a wetting agent when in contact with a liquid silicon melt such that a liquid silicon melt coming into contact with the particles may wet these particles, the patterned protrusion layer being applied in such manner and the particles being adapted such that the particles locally protrude from the matrix the particles of the nucleation enhancing material having sizes of between 100 μm and 1 mm.
A single side heating apparatus equipped with a pair of electrodes for heating a workpiece (W1, W2) from one side of the workpiece (W1, W2), the apparatus comprising: a base portion ; the pair of electrodes each having a contact portion configured to contact with the workpiece (W1, W2) in one direction, the contact portion having a single continuous contact surface or a plurality of spaced-apart contact surfaces; and an electrode holder , to which the pair of electrodes are fixed; characterized in a four-bar linkage provided between the base portion and the electrode holder and configured to rotate to tilt the electrode holder around an axis (O1) orthogonal to the one direction by a reaction force received by the electrodes from the workpiece (W1, W2), wherein the four-bar linkage comprises a first link located closer to the electrode holder , a second link located closer to the base portion , a third link , and a fourth link , the first link being shorter than the second link , and the third link and the fourth link being equal in length. a base portion ; the pair of electrodes each having a contact portion configured to contact with the workpiece (W1, W2) in one direction, the contact portion having a single continuous contact surface or a plurality of spaced-apart contact surfaces; and an electrode holder , to which the pair of electrodes are fixed; characterized in a four-bar linkage provided between the base portion and the electrode holder and configured to rotate to tilt the electrode holder around an axis (O1) orthogonal to the one direction by a reaction force received by the electrodes from the workpiece (W1, W2), wherein the four-bar linkage comprises a first link located closer to the electrode holder , a second link located closer to the base portion , a third link , and a fourth link , the first link being shorter than the second link , and the third link and the fourth link being equal in length.
Method for treating a gas stream comprising hydrogen and propane, wherein hydrogen is present as a major component, the method comprising the steps of: a) providing a membrane having a feed side and a permeate side, the membrane being selective for hydrogen over propane; b) passing the gas stream across the feed side of the membrane; c) withdrawing from the feed side a retentate stream depleted in hydrogen and enriched in propane compared with the gas stream; d) withdrawing from the permeate side a permeate stream enriched in hydrogen and depleted in propane compared with the gas stream; e) subjecting the retentate stream to elevated pressure distillation above 20 barg to separate hydrogen from propane, and wherein the hydrogen obtained from the elevated pressure distillation is combined with the permeate stream and at least partly recycled. a) providing a membrane having a feed side and a permeate side, the membrane being selective for hydrogen over propane; b) passing the gas stream across the feed side of the membrane; c) withdrawing from the feed side a retentate stream depleted in hydrogen and enriched in propane compared with the gas stream; d) withdrawing from the permeate side a permeate stream enriched in hydrogen and depleted in propane compared with the gas stream; e) subjecting the retentate stream to elevated pressure distillation above 20 barg to separate hydrogen from propane, and wherein the hydrogen obtained from the elevated pressure distillation is combined with the permeate stream and at least partly recycled.
A pharmaceutical formulation comprising an anti-viral oligonucleotide chelate complex prepared with a divalent metal cation for use in a method of treating a viral infection.
A method for removing the core from a cast part by destroying at least one core located inside the cast part , wherein in a step i), a dissociation energy required for destroying the core is determined, wherein, in a step ii), at least an energy equivalent to the dissociation energy determined in step i) is transmitted to the core via the cast part , wherein the energy transmitted in step ii) is lower than a deformation energy required for deforming the cast part , wherein, in step i), the dissociation energy required for destroying the at least one core is determined taking into account a shrinkage of the material forming the cast part during the solidification process of the material, wherein, in step i), a change in volume of the cast part during the solidification process is determined from the shrinkage of the material, and a binding energy of the core is determined at least on the basis of the change in volume, wherein, in step i), at least a pressure exerted on the core by the material during the shrinking of the material the cast part is formed of is determined, and the binding energy of the core is calculated on the basis of at least a pressure distribution in the core during the shrinking of the material, wherein, in step i), the dissociation energy required for destroying the core is calculated from the binding energy of the core . in a step i), a dissociation energy required for destroying the core is determined, wherein, in a step ii), at least an energy equivalent to the dissociation energy determined in step i) is transmitted to the core via the cast part , wherein the energy transmitted in step ii) is lower than a deformation energy required for deforming the cast part , wherein, in step i), the dissociation energy required for destroying the at least one core is determined taking into account a shrinkage of the material forming the cast part during the solidification process of the material, wherein, in step i), a change in volume of the cast part during the solidification process is determined from the shrinkage of the material, and a binding energy of the core is determined at least on the basis of the change in volume, wherein, in step i), at least a pressure exerted on the core by the material during the shrinking of the material the cast part is formed of is determined, and the binding energy of the core is calculated on the basis of at least a pressure distribution in the core during the shrinking of the material, wherein, in step i), the dissociation energy required for destroying the core is calculated from the binding energy of the core .
A mobile communication system, comprising: a plurality of devices that form a group; a Services Capability Server, SCS ; and a first node ; wherein: the first node is configured to perform authorization to the SCS , characterized in that : the SCS is configured to send the first node an external group ID and an indicator, the first node is configured to determine that the indicator identifies a group message, the first node is configured to map the external group ID to a corresponding internal group ID, and each of the plurality of devices is configured to receive the internal group ID. a plurality of devices that form a group; a Services Capability Server, SCS ; and a first node ; wherein: the first node is configured to perform authorization to the SCS , characterized in that : the SCS is configured to send the first node an external group ID and an indicator, the first node is configured to determine that the indicator identifies a group message, the first node is configured to map the external group ID to a corresponding internal group ID, and each of the plurality of devices is configured to receive the internal group ID. the first node is configured to perform authorization to the SCS , characterized in that : the SCS is configured to send the first node an external group ID and an indicator, the first node is configured to determine that the indicator identifies a group message, the first node is configured to map the external group ID to a corresponding internal group ID, and each of the plurality of devices is configured to receive the internal group ID. the SCS is configured to send the first node an external group ID and an indicator, the first node is configured to determine that the indicator identifies a group message, the first node is configured to map the external group ID to a corresponding internal group ID, and each of the plurality of devices is configured to receive the internal group ID.
A method of reinforcing a footwear component (101; 201), the method comprising: applying a thermoplastic powder to the footwear component (101; 201); leveling at least a portion of the thermoplastic powder ; selectively applying thermal energy to the footwear component (101; 201) to at least partially bond the thermoplastic powder with the footwear component (101; 201); and compressing the thermoplastic powder and the footwear component (101; 201). applying a thermoplastic powder to the footwear component (101; 201); leveling at least a portion of the thermoplastic powder ; selectively applying thermal energy to the footwear component (101; 201) to at least partially bond the thermoplastic powder with the footwear component (101; 201); and compressing the thermoplastic powder and the footwear component (101; 201).