mhurhangee/patent-ind-claim-en huggingface dataset:
A paint sprayer comprising: an end bell in the form of a plate having a first side and a second side opposite to the first side ; a motor and a motor housing disposed on and supported from the first side of the end bell; a pump drive and a pump assembly disposed on and supported from the second side of the end bell, the pump drive configured to convert rotational motion output by the motor to reciprocal motion; a pair of protrusions attached to and extending from the second side of the end bell such that each protrusion is cantilevered from the end bell; the pump assembly comprising a pair of mounting holes and containing a piston pump, the pair of mounting holes adapted to receive and slide onto the pair of protrusions to mount the pump assembly on the end bell as well as slide off of the pair of protrusions to remove the pump assembly, wherein the piston pump is configured to pump paint when reciprocated by the pump drive while mounted on the end bell; and a front cover , the front cover mounted to the end bell such that the pump drive is located between the front cover and the end bell. an end bell in the form of a plate having a first side and a second side opposite to the first side ; a motor and a motor housing disposed on and supported from the first side of the end bell; a pump drive and a pump assembly disposed on and supported from the second side of the end bell, the pump drive configured to convert rotational motion output by the motor to reciprocal motion; a pair of protrusions attached to and extending from the second side of the end bell such that each protrusion is cantilevered from the end bell; the pump assembly comprising a pair of mounting holes and containing a piston pump, the pair of mounting holes adapted to receive and slide onto the pair of protrusions to mount the pump assembly on the end bell as well as slide off of the pair of protrusions to remove the pump assembly, wherein the piston pump is configured to pump paint when reciprocated by the pump drive while mounted on the end bell; and a front cover , the front cover mounted to the end bell such that the pump drive is located between the front cover and the end bell.
A temperature measuring and overflow preventing probe for a pot, wherein the temperature measuring and overflow preventing probe for a pot is provided with a head part and a probe needle connected below the head part ; the probe needle is a vertically downward cylindrical structure; the lower part of the probe needle is a temperature detecting part , characterized in that the upper part is an overflow detecting part ; and in that it further comprises a cylindrical connection part connected between the temperature detecting part and the overflow detecting part ; and in that the connection part fixedly connects the temperature detecting part to the overflow detecting part to form a whole; the temperature detecting part and the overflow detecting part use conductive materials; and the connection part uses an insulation material.
An electrophotographic recording media comprising a base substrate coated on one side with an image-receiving layer that contains a polymeric polyolefin resin and more than 20 wt % of the total weight of the image-receiving layer of an inorganic pigment dispersed into said resin; wherein the inorganic pigment is calcium carbonate; wherein the image-receiving layer is applied on the image side and wherein a pigment coating layer is applied on the back side of the base substrate; wherein the pigment coating layer includes a binder; wherein the binder is present in an amount representing from 5 wt % to 30 wt % by total weight of the pigment coating layer; and wherein the binder is selected either: - from the group consisting of starch derivatives, cellulose derivatives, acrylamide polymers, acrylic copolymers, vinylidene chloride latex, acrylonitrile-butadiene copolymers; or - from the group consisting of polyvinyl alcohols and water-soluble copolymers thereof; cationic polyvinyl alcohols; aceto-acetylated polyvinyl alcohols; polyvinyl acetates; polyvinyl pyrrolidones including copolymers of polyvinyl pyrrolidone and polyvinyl acetate; gelatin; silyl-modified polyvinyl alcohol; styrene-butadiene copolymer; acrylic polymer latexes; ethylene-vinyl acetate copolymers; polyurethane resin; polyester resin; and combination thereof. - from the group consisting of starch derivatives, cellulose derivatives, acrylamide polymers, acrylic copolymers, vinylidene chloride latex, acrylonitrile-butadiene copolymers; or - from the group consisting of polyvinyl alcohols and water-soluble copolymers thereof; cationic polyvinyl alcohols; aceto-acetylated polyvinyl alcohols; polyvinyl acetates; polyvinyl pyrrolidones including copolymers of polyvinyl pyrrolidone and polyvinyl acetate; gelatin; silyl-modified polyvinyl alcohol; styrene-butadiene copolymer; acrylic polymer latexes; ethylene-vinyl acetate copolymers; polyurethane resin; polyester resin; and combination thereof.
An electrically powered medical device, comprising: a patient implantable element having a receiving cavity; and at least one contact assembly positioned in the receiving cavity, the contact assembly comprising: a housing having an annular shape with an inner surface defining at least in part an opening; and a contact disposed at least partially within the opening, the contact having: a first ring portion and a second ring portion , a plurality of leaf spring portions , wherein the plurality of leaf spring portions extend between the first ring portion and the second ring portion , and characterised in that the first ring portion and the second ring portion include circumferential openings . a patient implantable element having a receiving cavity; and at least one contact assembly positioned in the receiving cavity, the contact assembly comprising: a housing having an annular shape with an inner surface defining at least in part an opening; and a contact disposed at least partially within the opening, the contact having: a first ring portion and a second ring portion , a plurality of leaf spring portions , wherein the plurality of leaf spring portions extend between the first ring portion and the second ring portion , and characterised in that the first ring portion and the second ring portion include circumferential openings . a housing having an annular shape with an inner surface defining at least in part an opening; and a contact disposed at least partially within the opening, the contact having: a first ring portion and a second ring portion , a plurality of leaf spring portions , wherein the plurality of leaf spring portions extend between the first ring portion and the second ring portion , and characterised in that the first ring portion and the second ring portion include circumferential openings . a first ring portion and a second ring portion , a plurality of leaf spring portions , wherein the plurality of leaf spring portions extend between the first ring portion and the second ring portion , and characterised in that the first ring portion and the second ring portion include circumferential openings .
A method for washing and/or label removal of glass, ceramic, metal or plastic ware with a liquid cleaning composition at a process temperature below 80° C, wherein the liquid cleaning composition comprises active components in an amount of ≥ 0.001wt.-% to ≤ 10 wt.-% and an alkaline source in an amount of ≥ 0.5 wt.-% to ≤ 3.5 wt.-%, wherein the active components comprising: a) at least one sequestering agent selected from the group of phosphonic acid, phosphonate based sequestering agent, and/or a polymer of monomers of monoethylenically unsaturated Cs-Cs-carboxylic acids or salts thereof; b) at least one C 4 to C 18 hydroxymonocarboxylic acid or salt thereof; e) at least one alkyl endcapped nonionic alkoxylated C 8 to C 18 alcohol tenside containing 4 to 16 alkylene oxide units of ethylene oxide and/or propylene oxide; wherein the weight-% of the active components are based on the total weight of the liquid cleaning composition. a) at least one sequestering agent selected from the group of phosphonic acid, phosphonate based sequestering agent, and/or a polymer of monomers of monoethylenically unsaturated Cs-Cs-carboxylic acids or salts thereof; b) at least one C 4 to C 18 hydroxymonocarboxylic acid or salt thereof; e) at least one alkyl endcapped nonionic alkoxylated C 8 to C 18 alcohol tenside containing 4 to 16 alkylene oxide units of ethylene oxide and/or propylene oxide; wherein
Method for forming a filter mat comprising fibre material, suited to filtering fluids in the form of hydraulic fluid or solutions of any kind, in particular in the form of true suspensions, dispersions, emulsions or colloidal solutions from at least one web portion of a mat web , an unfolded mat web being advanced in the working or feed direction to laser or ultrasound welding units and at least one weld web sealing the layers of at least one web portion of the mat web to one another is formed, at least one cut then being made along the at least one weld web such that the at least one web portion is cut through, forming at least one sealed edge region , characterised in that : - welding units located on the outside or on the edges form a weld web running along the longitudinal edges of the mat web , - the mat web with the weld webs thus formed is advanced to a longitudinal cutter , which makes one cut in each of the weld webs , which divides the mat web into partial webs with sealed longitudinal edges , - the partial webs pass into a folding machine where they are pleated, and - a transverse weld web is formed in a welding and cutting process in the same manner as the weld webs and a dividing cut is made running perpendicular to the feed direction, said cut being formed in the middle of the transverse weld web and dividing the partial webs into separated web portions , which comprise sealed weld legs which are not only sealed at their longitudinal edges, but also at their transverse edges. - welding units located on the outside or on the edges form a weld web running along the longitudinal edges of the mat web , - the mat web with the weld webs thus formed is advanced to a longitudinal cutter , which makes one cut in each of the weld webs , which divides the mat web into partial webs with sealed longitudinal edges , - the partial webs pass into a folding machine where they are pleated, and - a transverse weld web is formed in a welding and cutting process in the same manner as the weld webs and a dividing cut is made running perpendicular to the feed direction, said cut being formed in the middle of the transverse weld web and dividing the partial webs into separated web portions , which comprise sealed weld legs which are not only sealed at their longitudinal edges, but also at their transverse edges.
A membrane filtration system comprising: a plurality of filtration modules including a plurality of hollow fiber membranes, the plurality of hollow fiber membranes potted in and extending between an upper header and a lower header ; the upper header including a first sealing surface; respective filtrate passageways defined in the upper header and in fluid communication with the plurality of hollow fiber membranes; and a filtrate transfer manifold in fluid communication with the filtrate passageways in the upper headers of the plurality of filtration modules wherein each filtration module comprises a removable end cap comprising: a second sealing surface configured to selectively engage with the first sealing surface; a port ; and a shut-off valve including a seal configured to selectively allow fluid communication between the port and the first filtrate passageway ; wherein, the manifold is mounted between the upper headers of a pair of modules so as not to obstruct the removal of the respective end cap of each upper header ; and wherein, the shut-off valve of each removable end cap is configured to isolate the plurality of hollow fiber membranes from the first filtrate passageway while the first filtrate passageway provides fluid communication between the filtrate passageways in the upper headers of the plurality of filtration modules. a plurality of filtration modules including a plurality of hollow fiber membranes, the plurality of hollow fiber membranes potted in and extending between an upper header and a lower header ; the upper header including a first sealing surface; respective filtrate passageways defined in the upper header and in fluid communication with the plurality of hollow fiber membranes; and a filtrate transfer manifold in fluid communication with the filtrate passageways in the upper headers of the plurality of filtration modules wherein each filtration module comprises a removable end cap comprising: a second sealing surface configured to selectively engage with the first sealing surface; a port ; and a shut-off valve including a seal configured to selectively allow fluid communication between the port and the first filtrate passageway ; a second sealing surface configured to selectively engage with the first sealing surface; a port ; and a shut-off valve including a seal configured to selectively allow fluid communication between the port and the first filtrate passageway ; wherein, the manifold is mounted between the upper headers of a pair of modules so as not to obstruct the removal of the respective end cap of each upper header ; and wherein, the shut-off valve of each removable end cap is configured to isolate the plurality of hollow fiber membranes from the first filtrate passageway while the first filtrate passageway provides fluid communication between the filtrate passageways in the upper headers of the plurality of filtration modules.
An ablation device , comprising: an elongate body having an inner lumen configured to deliver fluid to tissue surrounding the elongate body through at least one outlet port formed in the elongate body when the elongate body is introduced into a tissue mass; at least one ablation element configured to heat tissue within a treatment zone surrounding the elongate body; a plurality of temperature sensors (710-715, 812, 1304a, 1304b, 1512a, 1512b) coupled to the elongate body such that each sensor contacts a sidewall of the elongate body, the plurality of temperature sensors being positioned axially along the elongate body such that each of the plurality of temperature sensors is a distance apart from the at least one ablation element and is effective to output a measured temperature of tissue spaced a distance apart from tissue adjacent to the at least one ablation element such that the measured temperature indicates whether tissue is being heated to a therapeutic level; an insulating tube extending through the inner lumen of the elongate body, wherein the insulating tube contains the fluid flowing through the inner lumen and prevents the fluid from contacting the sidewall of the elongate body; and a fluid heating assembly disposed within the insulating tube, the fluid heating assembly including at least one wire configured to heat surrounding fluid, the at least one wire extending through at least one spacer disposed within the insulating tube. an elongate body having an inner lumen configured to deliver fluid to tissue surrounding the elongate body through at least one outlet port formed in the elongate body when the elongate body is introduced into a tissue mass; at least one ablation element configured to heat tissue within a treatment zone surrounding the elongate body; a plurality of temperature sensors (710-715, 812, 1304a, 1304b, 1512a, 1512b) coupled to the elongate body such that each sensor contacts a sidewall of the elongate body, the plurality of temperature sensors being positioned axially along the elongate body such that each of the plurality of temperature sensors is a distance apart from the at least one ablation element and is effective to output a measured temperature of tissue spaced a distance apart from tissue adjacent to the at least one ablation element such that the measured temperature indicates whether tissue is being heated to a therapeutic level; an insulating tube extending through the inner lumen of the elongate body, wherein the insulating tube contains the fluid flowing through the inner lumen and prevents the fluid from contacting the sidewall of the elongate body; and a fluid heating assembly disposed within the insulating tube, the fluid heating assembly including at least one wire configured to heat surrounding fluid, the at least one wire extending through at least one spacer disposed within the insulating tube.
A nozzle (NZ) for projecting fire fighting foam in a substantially focused stream, comprising: a nozzle (NZ) structured for projecting at least 0.38 m 3 /minute (100 gpm) aerated foam at 689476 Pa (100 psi) ; the nozzle (NZ) having a tip portion (TP) defining a longitudinal axis and terminating in a solid bore discharge orifice, the tip portion having a stream shaper; the stream shaper (SS) having at least four fins (FN) with a longitudinal dimension greater than a radial dimension, the fins (FN) terminating flush with the nozzle tip discharge orifice (DO). a nozzle (NZ) structured for projecting at least 0.38 m 3 /minute (100 gpm) aerated foam at 689476 Pa (100 psi) ; the nozzle (NZ) having a tip portion (TP) defining a longitudinal axis and terminating in a solid bore discharge orifice, the tip portion having a stream shaper; the stream shaper (SS) having at least four fins (FN) with a longitudinal dimension greater than a radial dimension, the fins (FN) terminating flush with the nozzle tip discharge orifice (DO).
A viewing system comprising: a storage device ; a calibration set stored on the storage device; a temperature sensor ; a matrix selector ; a geometric change calculator ; a data source to receive data representing local content; a render engine ; and a display system connected to the render engine and adapted to display a rendering received from the render engine, characterized in that the calibration set includes a plurality of temperatures and a plurality of homography transformation matrices , each respective homography transformation matrix being for a respective temperature range, the matrix selector selects a respective one of the homography transformation matrices corresponding to a temperature detected by the temperature sensor, the geometric change calculator calculates a geometric change based on the selected homography transformation matrix and the render engine is connected to the data source to receive the data and connected to the geometric change calculator to receive the geometric change and render the local content based on the geometric change. a storage device ; a calibration set stored on the storage device; a temperature sensor ; a matrix selector ; a geometric change calculator ; a data source to receive data representing local content; a render engine ; and a display system connected to the render engine and adapted to display a rendering received from the render engine, characterized in that the calibration set includes a plurality of temperatures and a plurality of homography transformation matrices , each respective homography transformation matrix being for a respective temperature range, the matrix selector selects a respective one of the homography transformation matrices corresponding to a temperature detected by the temperature sensor, the geometric change calculator calculates a geometric change based on the selected homography transformation matrix and the render engine is connected to the data source to receive the data and connected to the geometric change calculator to receive the geometric change and render the local content based on the geometric change.
Control method for adjusting a driving behaviour of an electric bicycle when pushing the electric bicycle , at least comprising the following steps • identifying activation of a pushing assistance operating mode of the electric bicycle by a user, • detecting an ego speed (v ego ) of the electric bicycle , characterized by the following steps: • ascertaining an external speed (v external ) of the user and/or at least one other vehicle , and • controlling an electric motor of the electric bicycle depending on the identified activation of the pushing assistance operating mode, the detected ego speed (v ego ) and the ascertained external speed (v external ) for adjusting the ego speed (v ego ) and/or an acceleration (a) of the electric bicycle . • identifying activation of a pushing assistance operating mode of the electric bicycle by a user, • detecting an ego speed (v ego ) of the electric bicycle , characterized by the following steps: • ascertaining an external speed (v external ) of the user and/or at least one other vehicle , and • controlling an electric motor of the electric bicycle depending on the identified activation of the pushing assistance operating mode, the detected ego speed (v ego ) and the ascertained external speed (v external ) for adjusting the ego speed (v ego ) and/or an acceleration (a) of the electric bicycle .
A coil spring and bonded pad for the car suspension system coil spring in which a coil spring seating portion includes a groove, which has the same shape as a shape of a surface of one side end of the coil spring such that the coil spring of a car suspension system is seated, and a pad is formed as a single body and includes a support protruding along inner and outer circumferences of the coil spring seating portion to prevent the coil spring from being separated from the coil spring seating portion so as to prevent damage to the coil spring and generation of noise due to friction between the coil spring and a strut seat , wherein: a low hardness layer is formed along an entire periphery or a partial section of the periphery of the coil spring seating portion of the pad ; a high hardness layer is formed in the support of the pad ; characterized in that the pad is fixedly bonded to the coil spring using adhesive layers formed on a contact surface of the coil spring seating portion and the coil spring ; a support panel having a higher strength and a lower density than the high hardness layer is inserted into a boundary between the low hardness layer and the high hardness layer ; and the pad includes: a first high hardness section formed at a portion on which one side end portion of the coil spring is seated; a second high hardness section formed at a portion at which the coil spring wound in a spiral shape is spaced apart from the coil spring seating portion ; and a low hardness section formed between the first and second high hardness sections . a low hardness layer is formed along an entire periphery or a partial section of the periphery of the coil spring seating portion of the pad ; a high hardness layer is formed in the support of the pad ; characterized in that the pad is fixedly bonded to the coil spring using adhesive layers formed on a contact surface of the coil spring seating portion and the coil spring ; a support panel having a higher strength and a lower density than the high hardness layer is inserted into a boundary between the low hardness layer and the high hardness layer ; and the pad includes: a first high hardness section formed at a portion on which one side end portion of the coil spring is seated; a second high hardness section formed at a portion at which the coil spring wound in a spiral shape is spaced apart from the coil spring seating portion ; and a low hardness section formed between the first and second high hardness sections . a first high hardness section formed at a portion on which one side end portion of the coil spring is seated; a second high hardness section formed at a portion at which the coil spring wound in a spiral shape is spaced apart from the coil spring seating portion ; and a low hardness section formed between the first and second high hardness sections .