mhurhangee/patent-ind-claim-en huggingface dataset:
A brushless motor comprising: a rotor assembly comprising a shaft , an impeller , a bearing assembly and a rotor core ; a stator assembly , wherein the stator assembly comprises a bobbin and a stator core , wherein the bobbin comprises first and second arms, the first and second arms are spaced apart to define a recess ; a frame comprising an outer portion and an inner portion radially inward of the outer portion, the inner portion supporting the rotor assembly and the stator assembly; and a strut extending between the outer portion and the inner portion, wherein the strut extends at least partially into the recess formed in the bobbin; and wherein the recess defines a space for receiving windings of the stator assembly and a space for receiving the strut . a rotor assembly comprising a shaft , an impeller , a bearing assembly and a rotor core ; a stator assembly , wherein the stator assembly comprises a bobbin and a stator core , wherein the bobbin comprises first and second arms, the first and second arms are spaced apart to define a recess ; a frame comprising an outer portion and an inner portion radially inward of the outer portion, the inner portion supporting the rotor assembly and the stator assembly; and a strut extending between the outer portion and the inner portion, wherein the strut extends at least partially into the recess formed in the bobbin; and wherein the recess defines a space for receiving windings of the stator assembly and a space for receiving the strut .
A process for producing acetic acid comprising: carbonylating at least one member selected from the group consisting of methanol, dimethyl ether, and methyl acetate in the presence of water in an amount from 0.1 to 14 wt.%, a rhodium catalyst, methyl iodide, iodide salts and a lithium compound to maintain a lithium acetate concentration greater than or equal to 0.3 wt %, to form a reaction medium in a reactor; separating the reaction medium to form a liquid recycle stream and a vapor product stream; separating the vapor product stream in 2 distillation columns in a primary purification train to produce a crude acid product comprising acetic acid and lithium, wherein separating the vapor product stream comprises: distilling the vapor product stream in a first distillation column to form a sidedraw comprising acetic acid; and distilling the sidedraw in a second distillation column to produce a crude acid product comprising acetic acid and lithium in an amount of less than or equal to 10 wppm; contacting the crude acetic acid product with a cationic exchanger in the acid form to produce an intermediate acid product; and contacting the intermediate acetic acid product with a metal-exchanged ion exchange resin having acid cation exchange sites to produce a purified acetic acid. carbonylating at least one member selected from the group consisting of methanol, dimethyl ether, and methyl acetate in the presence of water in an amount from 0.1 to 14 wt.%, a rhodium catalyst, methyl iodide, iodide salts and a lithium compound to maintain a lithium acetate concentration greater than or equal to 0.3 wt %, to form a reaction medium in a reactor; separating the reaction medium to form a liquid recycle stream and a vapor product stream; separating the vapor product stream in 2 distillation columns in a primary purification train to produce a crude acid product comprising acetic acid and lithium, wherein separating the vapor product stream comprises: distilling the vapor product stream in a first distillation column to form a sidedraw comprising acetic acid; and distilling the sidedraw in a second distillation column to produce a crude acid product comprising acetic acid and lithium in an amount of less than or equal to 10 wppm; contacting the crude acetic acid product with a cationic exchanger in the acid form to produce an intermediate acid product; and contacting the intermediate acetic acid product with a metal-exchanged ion exchange resin having acid cation exchange sites to produce a purified acetic acid.
A photosensitive resin composition, wherein comprising 40-70 parts by weight of an alkali-soluble resin, 20-50 parts by weight of a photopolymerizable monomer, 0.5-10.0 parts by weight of a photoinitiator, and 0.1-10.0 parts by weight of additives; the sum of each component by weight is 100; in the photosensitive resin composition, the additives comprising 0.1-8.0 parts by weight of a plasticizer containing a carbonate structure; the plasticizer containing a carbonate structure has a structural formula as shown in general formula : wherein, R1 and R2 are independently selected from C1-C10 linear or branched chain alkyl, C3-C10 cycloalkyl, C4-C10 alkylcycloalkyl or cycloalkylalkyl, phenyl, benzyl, C6-C10 aryl groups, C4-C10 heteroaryl groups, C2-C10 heterocyclic groups, or C2-C20 ester-containing groups; and the acyclic -CH2- in the above groups is capable to be optionally substituted by -O-, -CO-, -NH-, -S- or 1,4-phenylene. 40-70 parts by weight of an alkali-soluble resin, 20-50 parts by weight of a photopolymerizable monomer, 0.5-10.0 parts by weight of a photoinitiator, and 0.1-10.0 parts by weight of additives; the sum of each component by weight is 100; in the photosensitive resin composition, the additives comprising 0.1-8.0 parts by weight of a plasticizer containing a carbonate structure; the plasticizer containing a carbonate structure has a structural formula as shown in general formula : wherein, R1 and R2 are independently selected from C1-C10 linear or branched chain alkyl, C3-C10 cycloalkyl, C4-C10 alkylcycloalkyl or cycloalkylalkyl, phenyl, benzyl, C6-C10 aryl groups, C4-C10 heteroaryl groups, C2-C10 heterocyclic groups, or C2-C20 ester-containing groups; and the acyclic -CH2- in the above groups is capable to be optionally substituted by -O-, -CO-, -NH-, -S- or 1,4-phenylene.
A noise reduction device for a bus bar module the bus bar module comprising a plurality of bus bars for electrically connecting a plurality of power storage elements together, a holder that holds the plurality of bus bars and is made of insulating material, and an electric cable , one end of which is fixed to the holder and a portion on the other end side of which is drawn out of the holder , the holder including a guide portion that guides the electric cable to an attaching position of the noise reducing device , the noise reduction device comprising: a magnetic core that surrounds an outer periphery of the electric cable of the bus bar module ; and an elastic sheet that is wrapped around the electric cable so as to surround the electric cable and so that the guide portion is disposed between the elastic sheet and the electric cable , and is sandwiched between an inner peripheral surface of the magnetic core and an outer peripheral surface of the electric cable and elastically deformed. a magnetic core that surrounds an outer periphery of the electric cable of the bus bar module ; and an elastic sheet that is wrapped around the electric cable so as to surround the electric cable and so that the guide portion is disposed between the elastic sheet and the electric cable , and is sandwiched between an inner peripheral surface of the magnetic core and an outer peripheral surface of the electric cable and elastically deformed.
A liquid or semisolid emulsion seasoning comprising: fine food particles of a vegetable, a grain, a potato, a mushroom, a pulse or a nut/seed wherein the fine food particles comprise dietary fibers; a fat/oil; an organic acid; and a food-derived emulsifier, wherein the dietary fibers include (A1) a water-soluble dietary fiber and (A2) a water-insoluble dietary fiber, and a total amount thereof is 0.8% by mass or more and 23% by mass or less; the fine food particles have a modal diameter of 0.3 μm or more and 115 μm or less; a water content is 20% by mass or more; and the content ratio of the water-soluble dietary fiber (A1) to the water-insoluble dietary fiber (A2), (A1/A2), is 0.1 or more and 4 or less. the dietary fibers include (A1) a water-soluble dietary fiber and (A2) a water-insoluble dietary fiber, and a total amount thereof is 0.8% by mass or more and 23% by mass or less; the fine food particles have a modal diameter of 0.3 μm or more and 115 μm or less; a water content is 20% by mass or more; and the content ratio of the water-soluble dietary fiber (A1) to the water-insoluble dietary fiber (A2), (A1/A2), is 0.1 or more and 4 or less.
A method for estimating molecular concentrations or component assays in a sample, comprising the following steps: - passing the sample through a processing chain including a chromatography step, - thereby obtaining a representative signal of molecular concentrations or component assays and depending on technical parameters of the processing chain, - defining a direct analytical model of said signal using a modelling function comprising parameters related to the molecular concentrations or component assays and to said technical parameters of the processing chain, and - estimating the molecular concentrations or component assays using a signal processing device by inverting the direct analytical model, characterised in that : - the processing chain includes a step for multiple measurements comprising the detections and measurements of at least two different elements of one and the same product from the chromatography step, wherein these elements have not been distinguished by the chromatography step, to obtain at least two measured signals, - the direct analytical model of said signal representative of the molecular concentrations or component assays comprises modelling of this multiple measurement step, and includes separate modelling for each of said at least two measured signals, and - this modelling requires one common chromatographic time shape between said at least two measured signals. - passing the sample through a processing chain including a chromatography step, - thereby obtaining a representative signal of molecular concentrations or component assays and depending on technical parameters of the processing chain, - defining a direct analytical model of said signal using a modelling function comprising parameters related to the molecular concentrations or component assays and to said technical parameters of the processing chain, and - estimating the molecular concentrations or component assays using a - the processing chain includes a step for multiple measurements comprising the detections and measurements of at least two different elements of one and the same product from the chromatography step, wherein these elements have not been distinguished by the chromatography step, to obtain at least two measured signals, - the direct analytical model of said signal representative of the molecular concentrations or component assays comprises modelling of this multiple measurement step, and includes separate modelling for each of said at least two measured signals, and - this modelling requires one common chromatographic time shape between said at least two measured signals.
A food product forming machine comprising: a) a food supply ; b) a rotary food pump in communication with the food supply and including a food pump inlet and a food pump outlet; c) a molding mechanism having a mold plate with a mold cavity , the mold plate arranged to be reciprocated by a mold plate drive between a cavity fill position and a cavity discharge position; d) a knockout drive for reciprocating a knockout plunger to discharge molded food products from the mold cavity in the mold plate ; and e) a manifold connected to an outlet of the rotary food pump and having an outlet passageway connected to an inlet of the molding mechanism for filling the mold cavity of the mold plate , wherein f) the food pump outlet is located below the mold plate and below the manifold , characterized in that g) the food pump inlet is located above the mold plate and above the manifold . a) a food supply ; b) a rotary food pump in communication with the food supply and including a food pump inlet and a food pump outlet; c) a molding mechanism having a mold plate with a mold cavity , the mold plate arranged to be reciprocated by a mold plate drive between a cavity fill position and a cavity discharge position; d) a knockout drive for reciprocating a knockout plunger to discharge molded food products from the mold cavity in the mold plate ; and e) a manifold connected to an outlet of the rotary food pump and having an outlet passageway connected to an inlet of the molding mechanism for filling the mold cavity of the mold plate , wherein f) the food pump outlet is located below the mold plate and below the manifold , characterized in that g) the food pump inlet is located above the mold plate and above the manifold .
Method for producing a succession of containers from a succession of preforms made of plastic materials heated in a container production installation comprising at least one heating station for the succession of preforms , a forming machine comprising a plurality of forming stations , one or more treatment machines each comprising a plurality of treatment stations , the method comprising the following steps: - circulation of the succession of preforms in the heating station to the forming machine during which each preform is held individually and heated to a reference temperature, - forming of the succession of preforms in the forming machine , each heated preform being placed in a forming station in which said preform is formed into a container , such that said succession of preforms is formed into a succession of individual containers , - treatment of the succession of individual containers in the treatment machine , each individual container being placed in a treatment station , - circulation of each individually held container between the forming machine and the treatment machine or machines, the method being characterized in that it comprises a step of individual identification of each container produced during a predetermined tracking period, the individual identification phase comprising a marking step during which each individual container produced during said tracking period receives a marking specific to said container, making it possible to individually identify said container by distinguishing it from all the other containers produced by the production installation during said tracking period. - circulation of the succession of preforms in the heating station to the forming machine during which each preform is held individually and heated to a reference temperature, - forming of the succession of preforms in the forming machine , each heated preform being placed in a forming station in which said preform is formed into a container , such that said succession of preforms is formed into a succession of individual containers , - treatment of the succession of individual containers in the treatment machine , each individual container being placed in a treatment station , - circulation of each individually held container between the forming machine and the treatment machine or machines, the method being characterized in that it comprises a step of individual identification of each container produced during a predetermined tracking period, the individual identification phase comprising a marking step during which each individual container produced during said tracking period receives a marking specific to said container, making it possible to individually identify said container by distinguishing it from all the other containers produced by the production installation during said tracking period.
A method for tensioning a strapping band or a lashing band , which band is threaded through a self-locking buckle , and wherein said method comprises the steps of: - engaging a free end portion of the band via a tensioning means of a tensioning device , said tensioning device comprising a tensioning motor operatively connected to said tensioning means , wherein said tensioning means is a slotted windlass that is rotably driven by said tensioning motor, and - tensioning said band by actuating said tensioning motor in a tensioning direction, thereby driving said tensioning means , and thereby pulling said free end portion of the band through said buckle , characterized in that , as soon as a predetermined tension level has been reached, the windlass is automatically driven in reverse, back into a starting position for the windlass . - engaging a free end portion of the band via a tensioning means of a tensioning device , said tensioning device comprising a tensioning motor operatively connected to said tensioning means , wherein said tensioning means is a slotted windlass that is rotably driven by said tensioning motor, and - tensioning said band by actuating said tensioning motor in a tensioning direction, thereby driving said tensioning means , and thereby pulling said free end portion of the band through said buckle ,
An indoor unit for an air-conditioning apparatus, comprising: a casing having a front surface , a rear surface , an upper surface and a lower surface , and having an air inlet formed in the upper surface of the casing and an air outlet formed below the air inlet ; a fan and a heat exchanger provided inside the casing ; a plurality of filters provided to the air inlet to remove dust from air to be sucked into the casing by the fan ; a cleaning mechanism configured to clean the plurality of filters through relative movement to the plurality of filters ; and a dust box including a dust collecting portion configured to receive the dust removed by the cleaning mechanism and extending in a fore-and-aft direction, wherein the fore-and-aft direction is a direction from the front surface towards the rear surface of the casing or vice versa, characterized in that the dust box is provided in the casing so as to be freely mountable and dismountable in the fore-and-aft direction, and wherein the dust box is provided on one end portion side of the plurality of filters in a direction perpendicular to the fore-and-aft direction and perpendicular to a direction from the upper surface towards the lower surface of the casing or vice versa. a casing having a front surface , a rear surface , an upper surface and a lower surface , and having an air inlet formed in the upper surface of the casing and an air outlet formed below the air inlet ; a fan and a heat exchanger provided inside the casing ; a plurality of filters provided to the air inlet to remove dust from air to be sucked into the casing by the fan ; a cleaning mechanism configured to clean the plurality of filters through relative movement to the plurality of filters ; and a dust box including a dust collecting portion configured to receive the dust removed by the cleaning mechanism and extending in a fore-and-aft direction, wherein the fore-and-aft direction is a direction from the front surface towards the rear surface of the casing or vice versa, characterized in that the dust box is provided in the casing so as to be freely mountable and dismountable in the fore-and-aft direction, and wherein the dust box is provided on one end portion side of the plurality of filters in a direction perpendicular to the fore-and-aft direction and perpendicular to a direction from the upper surface towards the lower surface of the casing or vice versa.
A refrigerant pipe for a refrigerant circuit of a refrigeration apparatus , the refrigerant pipe comprising: a first pipe ; and a second pipe , wherein the first pipe includes a pipe body including stainless steel and a connection pipe provided at an end of the pipe body in a pipe axial direction and including a material different from stainless steel, the connection pipe has a protrusion (21b1) protruding in the pipe axial direction from the end of the pipe body , the second pipe includes a second large diameter portion including a material: i) that is same as the material of the connection pipe or ii) whose main component is same as a main component of the material of the connection pipe and disposed at an end in the pipe axial direction, a second small diameter portion having a smaller diameter than the second large diameter portion , and a step portion disposed between the second large diameter portion and the second small diameter portion , the connection pipe is inserted into the second large diameter portion , the protrusion (21b1) is in contact with the step portion , and the connection pipe has an outer peripheral surface connected to an inner peripheral surface of the second large diameter portion , characterized in that the connection pipe is provided on an outer peripheral surface of the pipe body and has an inner peripheral surface connected to the outer peripheral surface of the pipe body . a first pipe ; and a second pipe , wherein the first pipe includes a pipe body including stainless steel and a connection pipe provided at an end of the pipe body in a pipe axial direction and including a material different from stainless steel, the connection pipe has a protrusion (21b1) protruding in the pipe axial direction from the end of the pipe body , the second pipe includes a second large diameter portion including a material: i) that is same as the material of the connection pipe or ii) whose main component is same as a main component of the material of the connection pipe and disposed at an end in the pipe axial direction, a second small diameter portion having a smaller diameter than the second large diameter portion , and a step portion disposed between the second large diameter portion and the second small diameter portion , the connection pipe is inserted into the second large diameter portion , the protrusion (21b1) is in contact with the step portion , and the connection pipe has an outer peripheral surface connected to an inner peripheral surface of the second large diameter portion , characterized in that the connection pipe is provided on an outer peripheral surface of the pipe body and has an inner peripheral surface connected to the outer peripheral surface of the pipe body .
Pressure sensor with at least one textile element having threads , of which at least a part is of electrically conductive design, wherein at least one thread of the textile element is designed as a piezoresistive thread which is formed at least partially of a piezoresistive material that changes its electrical resistance under application of compressive force, characterized in that the piezoresistive thread has a core thread which is formed as a strand of several subthreads, in that the core thread designed as a strand is clad with a coating that is formed of the piezoresistive material and in that the piezoresistive thread has a thread diameter of 50 μm to 500 μm.
Weapon trough , wherein the weapon trough has at least a first clamping strap, wherein the at least one first clamping strap has at least one bearing region and at least a first fastening region , wherein the bearing region and the first fastening region are connected via a first force-limiting region , wherein the first fastening region is movably connected to the weapon trough perpendicularly to the longitudinal direction of the weapon trough, wherein the at least one first fastening region and the first force-limiting region are fixedly connectable to one another, wherein the first force-limiting region has at least a first shaft , wherein the at least one first shaft is rigidly connected to the first force-limiting region , wherein the at least one first shaft is arranged perpendicularly to the longitudinal direction of the weapon trough, wherein at least one first resetting element is arranged about the at least one first shaft , wherein a first connecting element is movably arranged on the at least one first shaft , wherein the first connecting element is fixedly connected to the bearing region .