mhurhangee/patent-ind-claim-en huggingface dataset:
A communication control device comprising: an antenna ; and a control unit for controlling wireless communication related to wireless power transfer to a power receiver device through a power transmitter device , wherein the control unit is configured to acquire via the antenna a radio wave status of each of a plurality of channels related to the wireless communication, acquire a power transmission status of the wireless power transfer, set, based on the acquired power transmission status, switching conditions for switching the channel according to the radio wave status, cause the channel to be switched based on the radio wave status and the switching conditions, and cause the wireless communication to continue on the switched channel. an antenna ; and a control unit for controlling wireless communication related to wireless power transfer to a power receiver device through a power transmitter device , wherein the control unit is configured to acquire via the antenna a radio wave status of each of a plurality of channels related to the wireless communication, acquire a power transmission status of the wireless power transfer, set, based on the acquired power transmission status, switching conditions for switching the channel according to the radio wave status, cause the channel to be switched based on the radio wave status and the switching conditions, and cause the wireless communication to continue on the switched channel.
An integrated circuit, comprising: a hybrid switch comprising first and second switching devices of different type, which are electrically coupled together to support parallel currents therein in response to respective control signals received at respective first and second control terminals of the first and second switching devices; and a control circuit configured to drive the first and second control terminals with respective first and second periodic control signals having first and second unequal duty cycles, respectively, when the first and second switching devices are disposed to collectively support a forward current in a first current range, and further configured to drive the first and second control terminals with respective third and fourth periodic control signals having third and fourth unequal duty cycles, respectively, when the first and second switching devices are disposed to collectively support a forward current in a second current range outside the first current range, said first duty cycle greaterthan said second duty cycle and said third duty cycle less than said fourth duty cycle. a hybrid switch comprising first and second switching devices of different type, which are electrically coupled together to support parallel currents therein in response to respective control signals received at respective first and second control terminals of the first and second switching devices; and a control circuit configured to drive the first and second control terminals with respective first and second periodic control signals having first and second unequal duty cycles, respectively, when the first and second switching devices are disposed to collectively support a forward current in a first current range, and further configured to drive the first and second control terminals with respective third and fourth periodic control signals having third and fourth unequal duty cycles, respectively, when the first and second switching devices are disposed to collectively support a forward current in a second current range outside the first current range, said first duty cycle greaterthan said second duty cycle and said third duty cycle less than said fourth duty cycle.
A sensor system comprising: a cell system comprising a pump laser configured to generate a circularly polarized pump beam to polarize alkali metal vapor enclosed within a sensor cell of the sensor system, and a magnetic field generator configured to generate a magnetic field within the sensor cell; a detection system comprising a probe laser configured to generate a probe beam, the detection system being configured to calculate at least one measurable parameter based on characteristics of the probe beam passing through the sensor cell resulting from precession of the polarized alkali metal vapor in response to an applied magnetic field; and a pump beam control system configured to pulse-width modulate a frequency of the pump beam to provide a pulse-width modulated (PWM) pump beam, and to control a duty-cycle of the PWM pump beam based on the characteristics of the probe beam passing through the sensor cell in a feedback manner to control polarization uniformity of the alkali metal vapor and to mitigate the effects of AC Stark shift on the at least one measurable parameter, wherein the pump beam control system is configured to control the duty-cycle in the feedback manner to maintain the duty-cycle at which the effects of the AC Stark shift are substantially equal and opposite with respect to a pulse-width modulation period of the PWM pump beam based on the characteristics of the probe beam passing through the sensor cell. a cell system comprising a pump laser configured to generate a circularly polarized pump beam to polarize alkali metal vapor enclosed within a sensor cell of the sensor system, and a magnetic field generator configured to generate a magnetic field within the sensor cell; a detection system comprising a probe laser configured to generate a probe beam, the detection system being configured to calculate at least one measurable parameter based on characteristics of the probe beam passing through the sensor cell resulting from precession of the polarized alkali metal vapor in response to an applied magnetic field; and a pump beam control system configured to pulse-width modulate a frequency of the pump beam to provide a pulse-width modulated (PWM) pump beam, and to control a duty-cycle of the PWM pump beam based on the characteristics of the probe beam passing through the sensor cell in a feedback manner to control polarization uniformity of the alkali metal vapor and to mitigate the effects of AC Stark shift on the at least one measurable parameter, wherein the pump beam control system is configured to control the duty-cycle in the feedback manner to maintain the duty-cycle at which the effects of the AC Stark shift are substantially equal and opposite with respect to a pulse-width modulation period of the PWM pump beam based on the characteristics of the probe beam passing through the sensor cell.
An apparatus for rotating a tube or rod , the tube or rod being supported from a mast of a rig and for insertion into a well or a component of the well , the apparatus having a weight and dimensions capable of transportation down a roadway and within the confines of a road, the apparatus including a rotation member for rotating the tube or rod, wherein the rotation member is attached to one of the components of the well at the surface, or mounted on the well or to the well by a component of the well, the apparatus further comprising an access platform for providing access to the rotation member , the rotation member is mountable on the well or on one of the components of the well such that in use the rotation member is supported by the well , the tube or rod is fed in use into the rotation member , from above the rotation member , and into the well , and the tube or rod inserted into the well being retained within the well by the rotation member and the apparatus being configured such that the total weight of the apparatus has a weight force that is greater than an upward force applied on the tube or rod by fluid pressure in the well . the apparatus further comprising an access platform for providing access to the rotation member , the rotation member is mountable on the well or on one of the components of the well such that in use the rotation member is supported by the well , the tube or rod is fed in use into the rotation member , from above the rotation member , and into the well , and the tube or rod inserted into the well being retained within the well by the rotation member and the apparatus being configured such that the total weight of the apparatus has a weight force that is greater than an upward force applied on the tube or rod by fluid pressure in the well .
An oil mist separation method that separates oil mist from target gas by using an oil separator including a rotor that is rotatable together with a spindle and by rotating the rotor , the method comprising: including in the rotor a separation disk group, the separation disk group having separation disks made with a plurality of truncated cone shape plate members layered in an axis direction of the spindle ; including in the separation disk group a first space (SP1) and a second space (SP2), the first space (SP1) being formed on a rotation center side of the rotor and vertically extending through the separation disk group and the second space (SP2) being formed between the separation disks that are laid over and being in communication with the first space (SP1); disposing in the first space (SP1) an oil introducing portion that introduces oil; introducing the oil from the oil introducing portion together with the target gas into the first space, while the rotor is in a rotating state; and allowing the target gas to flow from the first space into the second space together with the oil introduced from the oil introducing portion and to be discharged outward from an outer peripheral edge of the separation disk group; characterized in that the spindle is inserted into the first space (SP1) and connected to the rotor with a disk retaining portion comprising plate members joined to the circumferential face of the spindle , wherein the disk retention portion is inserted into respective attachment openings at the central side part of the separation disks . including in the rotor a separation disk group, the separation disk group having separation disks made with a plurality of truncated cone shape plate members layered in an axis direction of the spindle ; including in the separation disk group a first space (SP1) and a second space (SP2), the first space (SP1) being formed on a rotation center side of the rotor and vertically extending through the separation disk group and the second space (SP2) being formed between the separation disks that are laid over and being in communication with the first space (SP1); disposing in the first space (SP1) an oil introducing portion that introduces oil; introducing the oil from the oil introducing portion together with the target gas into the first space, while the rotor is in a rotating state; and allowing the target gas to flow from the first space into the second space together with the oil introduced from the oil introducing portion and to be discharged outward from an outer peripheral edge of the separation disk group; characterized in that the spindle is inserted into the first space (SP1) and connected to the rotor with a disk retaining portion comprising plate members joined to the circumferential face of the spindle , wherein the disk retention portion is inserted into respective attachment openings at the central side part of the separation disks .
A compound containing a liver targeting specific ligand and a thyroid hormone receptor agonist in the structure, wherein the liver targeting specific ligand X in the structure is connected to the thyroid hormone receptor agonist T sequentially through a branched chain L containing a structure for stabilizing steric hindrance, a linker B and a linking chain D, and the compound is represented by Formula (I) of (X-L) n -B-D-T wherein n is 3, and Formula (I) has a structure as shown below: wherein the compound has one of the structures shown in Kylo-0101 to Kylo-0103: wherein n is 3, and Formula (I) has a structure as shown below: wherein the compound has one of the structures shown in Kylo-0101 to Kylo-0103:
A biomolecular encapsulation device suitable for holding living cells wherein said device comprises an internal chamber which is disposed between an inner surface of a first semi-permeable layer and an inner surface of second semi-permeable layer , and the first and second semi-permeable layers are mounted on a supporting frame surrounding a perimeter of the internal chamber ; wherein the supporting frame comprises a first frame element that is connected to and a second frame element , and the first and second frame elements co-operate to position the first and second semi-permeable layers at a predetermined separation distance between the layers wherein the first frame element comprises (a) a first mounting region to which an outer surface of the first semi-permeable layer is attached and (b) a first spacer region that is unitary with the first mounting region , and wherein the second frame element comprises (a) a second mounting region to which the outer surface of the second semi-permeable layer is attached and (b) a second spacer region that is unitary with the second mounting region such that when the first and second frame elements interconnect, the first and second spacer regions are positioned between the first and second mounting regions and together define the predetermined separation distance between the layers .
Rotor with variable collective pitch rotatable about an axis of rotation (AXROT), said rotor with variable collective pitch comprising a hub , said rotor with variable collective pitch comprising a plurality of blades , each blade of said plurality of blades being individually movably mounted on the hub at least pivotably about a pitch variation axis (AXPAS), said rotor with variable collective pitch comprising an operating mechanism for simultaneously varying a pitch of each blade of said plurality of blades about its pitch variation axis (AXPAS), said operating mechanism comprising a control rod mounted mobile in translation in relation to the hub , said operating mechanism comprising a swash plate rotatably mounted on the control rod by a rolling mechanism , said operating mechanism comprising a plurality of pitch rods , each pitch rod of said plurality of pitch rods being hinged to an arm of the swash plate and to a pitch lever of a said blade , characterised in that said operating mechanism comprises an angle positioning tube , said angle positioning tube extending from a first extreme zone rotationally and translationally integral with the swash plate as far as a second extreme zone , said second extreme zone being inserted in a hole of the hub , said hub and the angle positioning tube being connected by a combined link having the function of causing a rotation about the axis of rotation (AXROT) of said angle positioning tube and of said swash plate in relation to the hub when there is a translation of the angle positioning tube in relation to the hub .
A process for preparing lactic acid and/or a lactate salt comprising: a) treating a lignocellulosic material with an alkaline agent comprising a caustic magnesium salt in the presence of water to provide a treated aqueous lignocellulosic material; b) saccharifying the treated aqueous lignocellulosic material in the presence of a hydrolytic enzyme to provide a saccharified aqueous lignocellulosic material comprising fermentable carbohydrates and a solid lignocellulosic fraction; c) fermenting the fermentable carbohydrates in the saccharified aqueous lignocellulosic material by means of a lactic acid producing microorganism in the presence of an alkaline agent comprising a caustic magnesium salt to provide an aqueous fermentation broth comprising a magnesium salt of lactic acid; and, d) isolating lactic acid and/or a salt of lactic acid from the fermentation broth, wherein the saccharification step b) and the fermentation step c) are performed as two separate steps. a) treating a lignocellulosic material with an alkaline agent comprising a caustic magnesium salt in the presence of water to provide a treated aqueous lignocellulosic material; b) saccharifying the treated aqueous lignocellulosic material in the presence of a hydrolytic enzyme to provide a saccharified aqueous lignocellulosic material comprising fermentable carbohydrates and a solid lignocellulosic fraction; c) fermenting the fermentable carbohydrates in the saccharified aqueous lignocellulosic material by means of a lactic acid producing microorganism in the presence of an alkaline agent comprising a caustic magnesium salt to provide an aqueous fermentation broth comprising a magnesium salt of lactic acid; and, d) isolating lactic acid and/or a salt of lactic acid from the fermentation broth,
Process of obtaining powdered sodium silicate from sand tailings generated from iron ore concentration process, characterized by comprising the following steps: a) removing the ultra-fine fraction, with grain size lower than 40 μm, present in sandy tailings generated from the iron ore concentration process; b) subjecting the material without ultra-fine fraction to removal of excess humidity; c) drying the resulting material after removal of excess humidity; d) adding a sodium hydroxide solution to the dried material, at a concentration of 33 to 38 mol/L, at a ratio of one part of tailing mass for two parts of solution mass; e) subjecting the tailing and the sodium hydroxide solution to mixing until perfect homogenization; f) subjecting the mixture to heat treatment at a temperature between 400 °C and 500 °C and, afterwards, cooling the obtained material; and g) storing the cooled material, as the final product, thus preventing absorption of humidity. a) removing the ultra-fine fraction, with grain size lower than 40 μm, present in sandy tailings generated from the iron ore concentration process; b) subjecting the material without ultra-fine fraction to removal of excess humidity; c) drying the resulting material after removal of excess humidity; d) adding a sodium hydroxide solution to the dried material, at a concentration of 33 to 38 mol/L, at a ratio of one part of tailing mass for two parts of solution mass; e) subjecting the tailing and the sodium hydroxide solution to mixing until perfect homogenization; f) subjecting the mixture to heat treatment at a temperature between 400 °C and 500 °C and, afterwards, cooling the obtained material; and g) storing the cooled material, as the final product, thus preventing absorption of humidity.
A packet transmission method, comprising: receiving , by a session management function network element, first access network tunnel information and second access network tunnel information that correspond to a first service; and sending , by the session management function network element, a downlink forwarding rule to a user plane function network element, wherein the downlink forwarding rule comprises the first access network tunnel information and the second access network tunnel information; and the downlink forwarding rule indicates the user plane function network element to replicate a received downlink packet of the first service, and send downlink packets of the first service through two paths respectively corresponding to the first access network tunnel information and the second access network tunnel information. receiving , by a session management function network element, first access network tunnel information and second access network tunnel information that correspond to a first service; and sending , by the session management function network element, a downlink forwarding rule to a user plane function network element, wherein the downlink forwarding rule comprises the first access network tunnel information and the second access network tunnel information; and the downlink forwarding rule indicates the user plane function network element to replicate a received downlink packet of the first service, and send downlink packets of the first service through two paths respectively corresponding to the first access network tunnel information and the second access network tunnel information.
A system , comprising: a spray cap configured to couple to a spray tool , wherein the spray cap comprises: a one-piece spray cap body ; and a flow control insert body disposed within the one-piece spray cap body ; a flow control passage formed in the flow control insert body , wherein the flow control passage comprises a first passage and a second passage downstream from the first passage , wherein the first passage comprises a first radial width , the second passage comprises a second radial width , and the second radial width is greater than the first radial width ; an expansion chamber extending through the one-piece spray cap body , wherein the expansion chamber is downstream from the flow control passage ; and one or more air shaping outlets formed in the one-piece spray cap body , wherein the one or more air shaping outlets are downstream from the expansion chamber . a one-piece spray cap body ; and a flow control insert body disposed within the one-piece spray cap body ; a flow control passage formed in the flow control insert body , wherein the flow control passage comprises a first passage and a second passage downstream from the first passage , wherein the first passage comprises a first radial width , the second passage comprises a second radial width , and the second radial width is greater than the first radial width ; an expansion chamber extending through the one-piece spray cap body , wherein the expansion chamber is downstream from the flow control passage ; and one or more air shaping outlets formed in the one-piece spray cap body , wherein the one or more air shaping outlets are downstream from the expansion chamber .
(Currently Amended) A shape memory polymer composition comprising a crosslinked network, the network comprising: a) a first repeating unit having the formula: wherein, R 1 is an unsubstituted C 2 -C 36 alkylene; L 1 is -COO-; and Ar 1 is an iodinated C 5 -C 30 aryl or C 5 -C 30 heteroaryl, Ar 1 comprising 3 iodine atoms; and b) a second repeating unit having the formula: wherein, R 9 is unsubstituted C 2 -C 36 alkylene. a) a first repeating unit having the formula: wherein, R 1 is an unsubstituted C 2 -C 36 alkylene; L 1 is -COO-; and Ar 1 is an iodinated C 5 -C 30 aryl or C 5 -C 30 heteroaryl, Ar 1 comprising 3 iodine atoms; and R 1 is an unsubstituted C 2 -C 36 alkylene; L 1 is -COO-; and Ar 1 is an iodinated C 5 -C 30 aryl or C 5 -C 30 heteroaryl, Ar 1 comprising 3 iodine atoms; and b) a second repeating unit having the formula: wherein, R 9 is unsubstituted C 2 -C 36 alkylene.