mhurhangee/patent-ind-claim-en huggingface dataset:
A system for controlling movement of a table supporting an object, comprising: a first control sub-system configured to generate a first control instruction; a second control sub-system configured to generate a second control instruction; a table control sub-system operably coupled to the table; and a master controller configured to receive the first control instruction from the first control sub-system, or the second control instruction from the second control sub-system, generate a third control instruction based on the first control instruction or the second control instruction, and transmit the third control instruction to the table control sub-system , wherein the table control sub-system is configured to generate a control signal based on the third control instruction, and cause the table to move based on the control signal, characterised in that the master controller is a virtual master node, the first control sub-system is operably connected to the second control sub-system or the master controller via a virtual table motion controller . a first control sub-system configured to generate a first control instruction; a second control sub-system configured to generate a second control instruction; a table control sub-system operably coupled to the table; and a master controller configured to receive the first control instruction from the first control sub-system, or the second control instruction from the second control sub-system, generate a third control instruction based on the first control instruction or the second control instruction, and transmit the third control instruction to the table control sub-system , receive the first control instruction from the first control sub-system, or the second control instruction from the second control sub-system, generate a third control instruction based on the first control instruction or the second control instruction, and transmit the third control instruction to the table control sub-system , wherein the table control sub-system is configured to generate a control signal based on the third control instruction, and cause the table to move based on the control signal, characterised in that the master controller is a virtual master node, the first control sub-system is operably connected to the second control sub-system or the master controller via a virtual table motion controller . generate a control signal based on the third control instruction, and cause the table to move based on the control signal, characterised in that the master controller is a virtual master node, the first control sub-system is operably connected to the second control sub-system or the master controller via a virtual table motion controller .
A mineral fiber forming device comprising: - a centrifuge suitable for rotating about a rotation axis , the centrifuge comprising an annular wall pierced by a plurality of orifices , the axis of symmetry of the annular wall being the rotation axis , - a first annular inductor suitable for heating the top part of the annular wall , - a second annular inductor suitable for heating the bottom part of the annular wall , the heating of the annular wall by its top part and by its bottom part enabling a temperature gradient over the height of the centrifuge. - a centrifuge suitable for rotating about a rotation axis , the centrifuge comprising an annular wall pierced by a plurality of orifices , the axis of symmetry of the annular wall being the rotation axis , - a first annular inductor suitable for heating the top part of the annular wall , - a second annular inductor suitable for heating the bottom part of the annular wall ,
An atomizer assembly for an electronic atomizer device comprising: an atomizer base , a heating member , and a liquid transport member ; wherein the atomizer base comprises a tubular body having an inserting end ; and a side wall of the tubular body defines at least one slot extending along an axial direction of the tubular body and communicating with an end surface of the inserting end ; and wherein the liquid transport member comprises a tubular liquid transport body and at least one couple of connecting portions connected together in a circumferential direction of the liquid transport body ; and the liquid transport body surrounds the heating member , and at least one of the connecting portions of each couple extends out of the tubular body through the at least one slot . an atomizer base , a heating member , and a liquid transport member ; wherein the atomizer base comprises a tubular body having an inserting end ; and a side wall of the tubular body defines at least one slot extending along an axial direction of the tubular body and communicating with an end surface of the inserting end ; and wherein the liquid transport member comprises a tubular liquid transport body and at least one couple of connecting portions connected together in a circumferential direction of the liquid transport body ; and the liquid transport body surrounds the heating member , and at least one of the connecting portions of each couple extends out of the tubular body through the at least one slot .
A sound generator comprising: - a housing having a first wall portion with a housing opening , - a shielding element blocking or attenuating electrical and/or magnetic fields and having a shield opening , where: - a sound outlet formed by an overlap, when projected on to a plane of the first wall portion, of an outline of the housing opening and an outline of the shield opening, - the shield opening has, when projected on to the plane, an area being no more than 150% of an area of the sound outlet, characterised in that the shielding element is provided inside the housing, adjacent to the first wall portion and covers at least a portion of the first wall portion. - a housing having a first wall portion with a housing opening , - a shielding element blocking or attenuating electrical and/or magnetic fields and having a shield opening , where: - a sound outlet formed by an overlap, when projected on to a plane of the first wall portion, of an outline of the housing opening and an outline of the shield opening, - the shield opening has, when projected on to the plane, an area being no more than 150% of an area of the sound outlet,
A hyperpolarization probe head for magnetic resonance techniques, in which a sample can be subjected to multiple electromagnetic radiation, comprising an RF transducer for generating and detecting a RF signal, wherein said RF transducer comprises: - an electrically conducting element ; - a grid polarizer comprising at least one grid formed by conducting grid elements which are at a distance from each other so that said grid polarizer is at least partially transparent to microwaves , said conducting grid elements and said conducting element being connected to a RF circuit of said probe through conducting elements , said radiofrequency circuit being configured to either generate a single-frequency or multi-frequency RF signal or to detect a single-frequency or multifrequency RF signal wherein a space is defined between said grid polarizer and said conducting element of said RF transducer and in which a sample can be held, said grid being fully or partially connected to said conducting element , thus allowing together controlled RF current paths therethrough and a substantially uniform RF magnetic field in said space. - an electrically conducting element ; - a grid polarizer comprising at least one grid formed by conducting grid elements which are at a distance from each other so that said grid polarizer is at least partially transparent to microwaves , said conducting grid elements and said conducting element being connected to a RF circuit of said probe through conducting elements , said radiofrequency circuit being configured to either generate a single-frequency or multi-frequency RF signal or to detect a single-frequency or multifrequency RF signal
Fill level measuring arrangement , configured to determine a fill level or a density of a medium in a container , comprising: a detector arrangement , configured to detect incident secondary cosmic rays and convert into electrical signals; wherein the detector arrangement comprises a first and a second direction-selective detector ; wherein the detector arrangement is configured to detect, by means of the first direction-selective detector , a first particle counting rate which is not influenced by the medium to be measured and serves as a reference, and to detect, by means of the second direction-selective detector , a second particle counting rate which is influenced by the medium to be measured; an evaluation unit , configured to calculate the fill level or the density of the medium from the first and second particle counting rate; wherein the first or second direction-selective detector comprises, respectively, a combination of a plurality of scintillators ; wherein the scintillators of the first and second direction-selective detector are spatially arranged in such a way that the detection of the radiation is limited to a certain spatial angle range. a detector arrangement , configured to detect incident secondary cosmic rays and convert into electrical signals; wherein the detector arrangement comprises a first and a second direction-selective detector ; wherein the detector arrangement is configured to detect, by means of the first direction-selective detector , a first particle counting rate which is not influenced by the medium to be measured and serves as a reference, and to detect, by means of the second direction-selective detector , a second particle counting rate which is influenced by the medium to be measured; an evaluation unit , configured to calculate the fill level or the density of the medium from the first and second particle counting rate; wherein the first or second direction-selective detector comprises, respectively, a combination of a plurality of scintillators ; wherein the scintillators of the first and second direction-selective detector are spatially arranged in such a way that the detection of the radiation is limited to a certain spatial angle range.
An article comprising: (a) a microsphere layer comprising a plurality of microspheres disposed in a monolayer; (b) a bead bonding layer comprising a first major surface and a second opposing major surface and the plurality of microspheres is partially embedded in the first major surface of the bead bonding layer, and comprises a thermoset polyurethane having a glass transition temperature of at least 35°C; (c) a primer layer disposed on the second major surface of the bead bonding layer wherein the primer layer comprises a copolymer of polyurea and polyurethane and wherein the primer layer is covalently attached to the bead bonding layer via urea linkages; and (d) an elastomeric layer disposed on the primer layer opposite the bead bonding layer, wherein the elastomeric layer comprises a polyurethane thermoplastic elastomer. (a) a microsphere layer comprising a plurality of microspheres disposed in a monolayer; (b) a bead bonding layer comprising a first major surface and a second opposing major surface and the plurality of microspheres is partially embedded in the first major surface of the bead bonding layer, and comprises a thermoset polyurethane having a glass transition temperature of at least 35°C; (c) a primer layer disposed on the second major surface of the bead bonding layer wherein the primer layer comprises a copolymer of polyurea and polyurethane and wherein the primer layer is covalently attached to the bead bonding layer via urea linkages; and (d) an elastomeric layer disposed on the primer layer opposite the bead bonding layer, wherein the elastomeric layer comprises a polyurethane thermoplastic elastomer.
A user equipment, UE, of a wireless communication system, the UE comprising: a communication module; and a processor configured to control the communication module, the processor is configured: to receive a radio resource control, RRC, signal including configuration information related to a monitoring period for an uplink, UL, preemption indicator; to detect a common physical downlink control channel, PDCCH, including the UL preemption indicator by performing PDCCH monitoring every monitoring period; the UE being characterized in that the processor is further configured, based on a physical uplink shared channel, PUSCH, transmission being overlapped with at least one resource part indicated by the UL preemption indicator within a reference time-frequency resource, to cancel a portion of the PUSCH transmission based on the at least one resource part, wherein a starting position of the reference time-frequency resource is determined based on an offset from an ending time of a corresponding PDCCH monitoring, and wherein the offset is calculated based on a PUSCH processing time. a communication module; and a processor configured to control the communication module, the processor is configured: to receive a radio resource control, RRC, signal including configuration information related to a monitoring period for an uplink, UL, preemption indicator; to detect a common physical downlink control channel, PDCCH, including the UL preemption indicator by performing PDCCH monitoring every monitoring period; the UE being characterized in that the processor is further configured, based on a physical uplink shared channel, PUSCH, transmission being overlapped with at least one resource part indicated by the UL preemption indicator within a reference time-frequency resource, to cancel a portion of the PUSCH transmission based on the at least one resource part, wherein a starting position of the reference time-frequency resource is determined based on an offset from an ending time of a corresponding PDCCH monitoring, and to receive a radio resource control, RRC, signal including configuration information related to a monitoring period for an uplink, UL, preemption indicator; to detect a common physical downlink control channel, PDCCH, including the UL preemption indicator by performing PDCCH monitoring every monitoring period; the UE being characterized in that the processor is further configured, based on a physical uplink shared channel, PUSCH, transmission being overlapped with at least one resource part indicated by the UL preemption indicator within a reference time-frequency resource, to cancel a portion of the PUSCH transmission based on the at least one resource part, wherein a starting position of the reference time-frequency resource is determined based on an offset from an ending time of a corresponding PDCCH monitoring, and
An aluminum alloy comprising 0.01 - 0.06 wt. % Si, 0.02 - 0.15 wt. % Fe, 0.20 - 0.80 wt. % Cu, 0.05 - 0.20 wt. % Mn, 5.3 - 6.0 wt. % Mg, 0.001 - 0.02 wt. % Cr, 0 - 0.05 wt. % Zn, 0 - 0.03 wt. % Ti, up to 0.15 wt. % of impurities in total and up to 0.05 wt. % each of impurities, and remainder is Al.
A pressure-compensation controlled hydraulic pump, comprising a pressure control device, a hydraulic pump and a displacement adjusting device, wherein the displacement adjusting device is adapted to compare a first pressure value generated by the pressure control device with a second pressure value at an oil outlet of the hydraulic pump, and to adjust the displacement of the hydraulic pump according to a result of the comparison, so that the output flow rate of the hydraulic pump is stabilized within a preset flow rate range when the rotation speed of the hydraulic pump varies, wherein the displacement adjusting device comprises a hydraulic control reversing valve and a servo cylinder for adjusting the displacement of the hydraulic pump , the oil outlet of the hydraulic pump is connected to an internal output oil path , an oil inlet of the hydraulic pump is connected to an internal input oil path , a first hydraulic control port of the hydraulic control reversing valve is connected to an internal oil drain path via the pressure control device, a piston chamber of the servo cylinder is connected to the internal output oil path and the internal oil drain path respectively via the hydraulic control reversing valve , a pressure difference between the pressure control device and an oil outlet pressure of the hydraulic pump acts on a valve spool of the hydraulic control reversing valve via the first hydraulic control port and a second hydraulic control port of the hydraulic control reversing valve to drive the hydraulic control reversing valve to perform reversing, thereby selectively enables the piston chamber of the servo cylinder to be in communication with the internal output oil path or the internal oil drain path , and wherein the first hydraulic control port is connected to the internal output oil path through a hydraulic control oil inlet path provided with a first throttle valve , and the second hydraulic control port of the hydraulic control reversing valve is connected to the internal output oil path .
A cooling assembly comprising: one or more panels (110, 120, 130, 140, 170; 810, 820, 830, 840) affixed together to form the cooling assembly , at least a portion of the one or more panels (110, 120, 130, 140, 170; 810, 820, 830, 840) comprising an exterior material layer , an interior material layer , and an absorbent material layer maintained between the exterior material layer and the interior material layer , wherein the cooling assembly is configured to at least partially cover a head area of a user when the cooling assembly is worn, characterized by a plurality of apertures (160, 190, 192; 811, 821) extending through the exterior material layer , the interior material layer , and the absorbent material layer at one or more locations on the cooling assembly , wherein the plurality of apertures (160, 190, 192; 811, 821) comprises at least a right ear opening at a right side portion of the cooling assembly and a left ear opening at a left side portion of the cooling assembly opposite the right ear opening. one or more panels (110, 120, 130, 140, 170; 810, 820, 830, 840) affixed together to form the cooling assembly , at least a portion of the one or more panels (110, 120, 130, 140, 170; 810, 820, 830, 840) comprising an exterior material layer , an interior material layer , and an absorbent material layer maintained between the exterior material layer and the interior material layer , wherein the cooling assembly is configured to at least partially cover a head area of a user when the cooling assembly is worn, characterized by a plurality of apertures (160, 190, 192; 811, 821) extending through the exterior material layer , the interior material layer , and the absorbent material layer at one or more locations on the cooling assembly , wherein the plurality of apertures (160, 190, 192; 811, 821) comprises at least a right ear opening at a right side portion of the cooling assembly and a left ear opening at a left side portion of the cooling assembly opposite the right ear opening.
A noise reduction box, comprising a shell and a detection assembly, wherein the inside of the shell defines a cavity, the shell is provided with an air inlet and an air outlet that are in communication with the cavity, and the detection assembly is mounted on the shell ; characterized in that the detection assembly is adapted to detect the degree to which the inside of the cavity is dirty, so that the noise reduction box can be cleaned and serviced timely, wherein the detection assembly comprises a dirt adsorption component and the dirt adsorption component is adapted to absorb the pollutants in the air in the cavity and to develop the color to different degrees according to the amount of the absorbed pollutants.
A recombinant bacterial cell for the production of a fatty amine, wherein: (i) the recombinant bacterial cell comprises an engineered pathway for fatty aldehyde production, such that the bacterial cell expresses an exogenous carboxylic acid reductase and an exogenous phosphopantetheinyl transferase; and (ii) the recombinant bacterial cell expresses an exogenous transaminase. (i) the recombinant bacterial cell comprises an engineered pathway for fatty aldehyde production, such that the bacterial cell expresses an exogenous carboxylic acid reductase and an exogenous phosphopantetheinyl transferase; and (ii) the recombinant bacterial cell expresses an exogenous transaminase.
An interphase insulator made of an insulating material and configured and sized for entering in a longitudinal slot of an electric machine and for electrically insulating a first and a second coil of said machine from one another, wherein said interphase insulator comprises: a longitudinal leg-insulating portion for entering the longitudinal slot of the electric machine; and two coil head-insulating portions provided at opposite longitudinal ends of the longitudinal leg-insulating portion; at least one of said coil head-insulating portion being provided with a first fold line defining a first foldable tab , a second fold line intersecting the first fold line , the second fold line defining a second foldable tab , the first and second intersecting fold lines create at least a three-zone head-insulating portion including the first and second foldable tabs and a triangular zone ; characterized in that the at least one head-insulating portion includes the first fold line defining the first foldable tab , the second fold line aligned with a cut to define the second foldable tab and a third fold line defining a locking portion provided with a V-shaped notch wherein folding the locking portion along the third fold line configures the V-shaped notch for insertion into the cut . a longitudinal leg-insulating portion for entering the longitudinal slot of the electric machine; and two coil head-insulating portions provided at opposite longitudinal ends of the longitudinal leg-insulating portion; at least one of said coil head-insulating portion being provided with a first fold line defining a first foldable tab , a second fold line intersecting the first fold line , the second fold line defining a second foldable tab , the first and second intersecting fold lines create at least a three-zone head-insulating portion including the first and second foldable tabs and a triangular zone ; characterized in that the at least one head-insulating portion includes the first fold line defining the first foldable tab , the second fold line aligned with a cut to define the second foldable tab and a third fold line defining a locking portion provided with a V-shaped notch wherein folding the locking portion along the third fold line configures the V-shaped notch for insertion into the cut .
Adapter device for fastening an attachment apparatus to a telescopic sight , having a clamping ring which is fastenable to the telescopic sight , and a holding ring which is fastenable to the attachment apparatus , - wherein the clamping ring has a holding contour for releasably fastening in a form-fitting and/or force-fitting manner to a mating contour disposed on the holding ring , and - the holding contour and the mating contour are embodied as a threaded connection with an interrupted round thread. - wherein the clamping ring has a holding contour for releasably fastening in a form-fitting and/or force-fitting manner to a mating contour disposed on the holding ring , and - the holding contour and the mating contour are embodied as a threaded connection with an interrupted round thread.