mhurhangee/ep-ind-claims huggingface dataset:
A filter head configured to receive an unfiltered liquid through a first port and discharge a filtered liquid through a second port and a filter sensor device, comprising: a touch plug a sensor coupler; a selectively engaged contaminant sensing unit configured to detect a signal indicative of a contaminant present in a filter unit; an outlet spud disposed at a filter unit receiving portion of the filter head, comprising one or more laterally disposed ports, configured to provide fluid communication between the filter unit and the filter head, the outlet spud configured, in use, to receive the touch plug, wherein the touch plug is slidably disposed in the outlet spud and wherein the touch plug is configured to be in electrical coupling with the sensor coupler, and, in use, to be in electrical coupling with a probe first end fixedly disposed in a filter device that is disposed in a filter canister selectively engaged with the filter head; and wherein the sensor coupler is configured, in use, to be in electrical coupling with the contaminant sensing unit, and to be in indirect electrical coupling with a probe second end via the touch plug and the probe first end, disposed in a contaminant receiving portion of the filter canister, when the filter canister is selectively engaged with the filter head. a touch plug a sensor coupler; a selectively engaged contaminant sensing unit configured to detect a signal indicative of a contaminant present in a filter unit; an outlet spud disposed at a filter unit receiving portion of the filter head, comprising one or more laterally disposed ports, configured to provide fluid communication between the filter unit and the filter head, the outlet spud configured, in use, to receive the touch plug, wherein the touch plug is slidably disposed in the outlet spud and wherein the touch plug is configured to be in electrical coupling with the sensor coupler, and, in use, to be in electrical coupling with a probe first end fixedly disposed in a filter device that is disposed in a filter canister selectively engaged with the filter head; and wherein the sensor coupler is configured, in use, to be in electrical coupling with the contaminant sensing unit, and to be in indirect electrical coupling with a probe second end via the touch plug and the probe first end, disposed in a contaminant receiving portion of the filter canister, when the filter canister is selectively engaged with the filter head.
A method of making a fabric comprising: preparing a thermoplastic polyurethane composition, wherein said thermoplastic polyurethane composition comprises: a thermoplastic polyurethane comprising the reaction product of: (i) one or more polyols, (ii) one or more diisocyanates, (iii) one or more chain extenders, (iv) optionally one or more crosslinking agents, and (v) one or more functional modifiers, wherein each said functional modifier is a reaction product of an aminodiol and a Bronsted acid and wherein the functional modifier is incorporated into the backbone of the thermoplastic polyurethane; melt-spinning said thermoplastic polyurethane composition into a fiber; and processing the fiber into a fabric. preparing a thermoplastic polyurethane composition, wherein said thermoplastic polyurethane composition comprises: a thermoplastic polyurethane comprising the reaction product of: (i) one or more polyols, (ii) one or more diisocyanates, (iii) one or more chain extenders, (iv) optionally one or more crosslinking agents, and (v) one or more functional modifiers, wherein each said functional modifier is a reaction product of an aminodiol and a Bronsted acid and wherein the functional modifier is incorporated into the backbone of the thermoplastic polyurethane; melt-spinning said thermoplastic polyurethane composition into a fiber; and processing the fiber into a fabric.
A quantitative syringe-type ejector comprising: a syringe; and a plunger pushable into the syringe, the plunger includes: a piston holding member having a piston in front and at least one arm extending backward; and a plunger operation member located behind the piston holding member to press the arm forward, the piston holding member has, on the arm: a slide projection for deforming the arm inward while sliding on an inner peripheral surface of the syringe; and a lock projection located behind the slide projection to be locked to a back end of the syringe, the lock of the lock projection to the back end of the syringe is released when the plunger operation member is pushed in a state where the arm is deformed inward, characterized in that the plunger operation member has a plurality of lock parts to be releasably locked to the back end of the syringe, wherein the lock between the plurality of lock parts and the back end of the syringe are released when the plunger operation member is pushed so that the lock part climbs over the back end of the syringe. a syringe; and a plunger pushable into the syringe, the plunger includes: a piston holding member having a piston in front and at least one arm extending backward; and a plunger operation member located behind the piston holding member to press the arm forward, the piston holding member has, on the arm: a slide projection for deforming the arm inward while sliding on an inner peripheral surface of the syringe; and a lock projection located behind the slide projection to be locked to a back end of the syringe, the lock of the lock projection to the back end of the syringe is released when the plunger operation member is pushed in a state where the arm is deformed inward, characterized in that the plunger operation member has a plurality of lock parts to be releasably locked to the back end of the syringe, wherein the lock between the plurality of lock parts and the back end of the syringe are released when the plunger operation member is pushed so that the lock part climbs over the back end of the syringe.
Process for manufacturing frameless windows (1, 2) which comprise a transparent pane, the lower edge of which is fixed in the slot of one or more brackets by means of at least one layer of adhesive, characterized in that it comprises the following operating steps: - arranging the pane on a work-table of an apparatus as defined by claim 22; - arranging the brackets on one or more mobile supports (19, 20) suitable for moving toward and from the lower edge of the pane arranged on the work table; - moving the mobile supports (19, 20) toward the lower edge of the pane so that this edge penetrates into the slot of the brackets, said adhesive being arranged in this slot. - arranging the pane on a work-table of an apparatus as defined by claim 22; - arranging the brackets on one or more mobile supports (19, 20) suitable for moving toward and from the lower edge of the pane arranged on the work table; - moving the mobile supports (19, 20) toward the lower edge of the pane so that this edge penetrates into the slot of the brackets, said adhesive being arranged in this slot.
An occupant support structure for supporting an occupant comprising: an orientation adjustable torso section; a lower body section including a heel region subsection adapted to support the heel region of an occupant of the occupant support; and a control system adapted to: A) cause the heel region subsection to temporarily substantially disengage from the heel region of the occupant in response to a change of angular orientation of the torso section which begins at a time t 0; and B) cause the heel region subsection to subsequently re-engage with the heel region of the occupant, the re-engagement occurring at a time t B which is later than t 0: characterized in that the control system is adapted to cause the temporary substantial disengagement and the subsequent re-engagement only if the angular orientation of the torso section changes. an orientation adjustable torso section; a lower body section including a heel region subsection adapted to support the heel region of an occupant of the occupant support; and a control system adapted to: A) cause the heel region subsection to temporarily substantially disengage from the heel region of the occupant in response to a change of angular orientation of the torso section which begins at a time t 0; and B) cause the heel region subsection to subsequently re-engage with the heel region of the occupant, the re-engagement occurring at a time t B which is later than t 0: characterized in that the control system is adapted to cause the temporary substantial disengagement and the subsequent re-engagement only if the angular orientation of the torso section changes. A) cause the heel region subsection to temporarily substantially disengage from the heel region of the occupant in response to a change of angular orientation of the torso section which begins at a time t 0; and B) cause the heel region subsection to subsequently re-engage with the heel region of the occupant, the re-engagement occurring at a time t B which is later than t 0:
An ultrasound catheter (10, 60, 90) adapted for placement within a blood vessel having a vessel wall, the ultrasound catheter for treating a calcified lesion within or adjacent the vessel wall, the ultrasound catheter comprising: an elongate shaft (16, 62, 122) extending from a distal region to a proximal region; an ultrasound transducer (14, 72) disposed relative to the distal region of the elongate shaft, the ultrasound transducer adapted to impart near-field acoustic pressure waves within the calcified lesion in order to induce fractures in the calcified lesion; and a double walled inflatable balloon (66, 98, 104, 126) disposed about the ultrasound transducer and coupled to the elongate shaft (16, 122), the double walled inflatable balloon (66, 98, 104, 126) having a collapsed configuration suitable for advancing the ultrasound catheter through a patient's vasculature and an expanded configuration suitable for anchoring the ultrasound catheter in position relative to a treatment site, wherein the double walled inflatable balloon (66, 98, 104, 126) is constructed with an inner wall and an outer wall made of a non-permeable material and is configured to be inflated using an inflation fluid, the inflation fluid having cavitation nuclei therein, the inflation fluid being a medium through which the ultrasound transducer transmits acoustic pressure waves. an elongate shaft (16, 62, 122) extending from a distal region to a proximal region; an ultrasound transducer (14, 72) disposed relative to the distal region of the elongate shaft, the ultrasound transducer adapted to impart near-field acoustic pressure waves within the calcified lesion in order to induce fractures in the calcified lesion; and a double walled inflatable balloon (66, 98, 104, 126) disposed about the ultrasound transducer and coupled to the elongate shaft (16, 122), the double walled inflatable balloon (66, 98, 104, 126) having a collapsed configuration suitable for advancing the ultrasound catheter through a patient's vasculature and an expanded configuration suitable for anchoring the ultrasound catheter in position relative to a treatment site, wherein the double walled inflatable balloon (66, 98, 104, 126) is constructed with an inner wall and an outer wall made of a non-permeable material and is configured to be inflated using an inflation fluid, the inflation fluid having cavitation nuclei therein, the inflation fluid being a medium through which the ultrasound transducer transmits acoustic pressure waves.
Foundation comprising a part which is produced using concrete, characterised in that it has, at its upper part, a so-called "ballasting" assembly, the said ballasting assembly having a density of between 6500 kg/m3 and 8000 kg/m3.
A method of determining the type of fibroepithelial tumour of the breast, in a biological sample in vitro, comprising: obtaining an expression profile of a combination of genes comprising PRAME, ABCA8, CCL19, FN1, and APOD in said sample; obtaining an expression profile of one or more normalized genes for use as a control; determining the differential activity of PRAME, ABCA8, CCL19, FN1 and APOD relative to the control based on the expression profile of the one or more genes and one or more normalized genes; correlating the differential activity of PRAME, ABCA8, CCL19, FN1 and APOD relative to the control to obtain a p-score using a predictive algorithm, wherein the predictive algorithm is: p = e 2.95575 Δ Ct of APOD − 0.11934 Δ Ct of APOD ∗ Δ Ct of ABCA 8 − 0.43165 Δ Ct of PRAME ∗ Δ Ct of FN 1 + 0.08326 Δ Ct of PRAME ∗ Δ Ct of CCL 19 1 + e 2.95575 Δ Ct of APOD − 0.11934 Δ Ct of APOD ∗ Δ Ct of ABCA 8 − 0.43165 Δ Ct of PRAME ∗ Δ Ct of FN 1 + 0.08326 Δ Ct of PRAME ∗ Δ Ct of CCL 19; and determining the type of fibroepithelial tumour based on the p-score, wherein a p-score of less than 0.5 is indicative of a fibroadenoma and a p-score of 0.5 and above is indicative of phyllodes tumour. obtaining an expression profile of a combination of genes comprising PRAME, ABCA8, CCL19, FN1, and APOD in said sample; obtaining an expression profile of one or more normalized genes for use as a control; determining the differential activity of PRAME, ABCA8, CCL19, FN1 and APOD relative to the control based on the expression profile of the one or more genes and one or more normalized genes; correlating the differential activity of PRAME, ABCA8, CCL19, FN1 and APOD relative to the control to obtain a p-score using a predictive algorithm, wherein the predictive algorithm is: p = e 2.95575 Δ Ct of APOD − 0.11934 Δ Ct of APOD ∗ Δ Ct of ABCA 8 − 0.43165 Δ Ct of PRAME ∗ Δ Ct of FN 1 + 0.08326 Δ Ct of PRAME ∗ Δ Ct of CCL 19 1 + e 2.95575 Δ Ct of APOD − 0.11934 Δ Ct of APOD ∗ Δ Ct of ABCA 8 − 0.43165 Δ Ct of PRAME ∗ Δ Ct of FN 1 + 0.08326 Δ Ct of PRAME ∗ Δ Ct of CCL 19; and determining the type of fibroepithelial tumour based on the p-score, wherein a p-score of less than 0.5 is indicative of a fibroadenoma and a p-score of 0.5 and above is indicative of phyllodes tumour.
A process for manufacturing 1,4:3,6-dianhydrohexitols, comprising the steps of: a) providing at least one hexitol, b) dehydrating said hexitol, c) distilling the dehydration product obtained on conclusion of step b), characterized in that: - the hexitol is provided in the form of an aqueous solution having a dry weight content of hexitol of greater than 95% in step a), - the step b) of dehydrating is performed under vacuum, - the distillation is performed using a thin-film evaporator in step c). a) providing at least one hexitol, b) dehydrating said hexitol, c) distilling the dehydration product obtained on conclusion of step b), - the hexitol is provided in the form of an aqueous solution having a dry weight content of hexitol of greater than 95% in step a), - the step b) of dehydrating is performed under vacuum, - the distillation is performed using a thin-film evaporator in step c).
A gel polymer electrolyte obtained by polymerizing a composition for a gel polymer electrolyte comprising a polymerizable monomer, a polymerization initiator, an electrolyte salt and an electrolyte solvent, wherein the electrolyte salt is an imide salt; wherein the imide salt is lithium bis(fluorosulfonyl)imide; and which further comprises a corrosion inhibitor as an additive which is at least one selected from the group consisting of the compounds represented by the following Chemical Formula 2 to Chemical Formula 6, ethylene sulfate, or propane sultone: (In Chemical Formula 2 and Chemical Formula 3, each of R 1, R 2 and R 3 independently represents H, a C 1 -C 10 linear or branched alkyl group, a C 1 -C 10 linear or branched alkyl ester group, Na or Si(CH 3) 3.) (In Chemical Formula 4, R 4 is a C 1 -C 6 linear or branched alkylene group, a C 6 -C 12 arylene group or a C 2 -C 6 alkenylene group, and n is an integer of 1-10.) (In Chemical Formula 5, each of R 5 -R 8 independently represents a C 1 -C 6 linear or branched alkylene group, O or -SO 2 - group.) (In Chemical Formula 6, each of R 9 -R 14 independently represents a C 1 -C 6 linear or branched alkylene group, a C 6 -C 12 arylene group or a C 2 -C 6 alkenyl group, and m is an integer of 0-3.)
An electronic heat dissipation module, comprising: a substrate; a metallic shielding cover, disposed on the substrate and forming an accommodating chamber together with the substrate, wherein the metallic shielding cover has an opening (222a, 222b), and the accommodating chamber is communicated with outside via the opening (222a, 222b); an electronic component, disposed on the substrate and accommodated in the accommodating chamber; and a piezoelectric element, adhered to the metallic shielding cover such that the piezoelectric element does not overlay the opening (222a, 222b) in the metallic shielding cover, wherein the piezoelectric element after being enabled is configured to bring a local portion of the metallic shielding cover into vibration to change a volume of the accommodating chamber and to make air flow into or out of the accommodating chamber via the opening (222a, 222b). a substrate; a metallic shielding cover, disposed on the substrate and forming an accommodating chamber together with the substrate, wherein the metallic shielding cover has an opening (222a, 222b), and the accommodating chamber is communicated with outside via the opening (222a, 222b); an electronic component, disposed on the substrate and accommodated in the accommodating chamber; and a piezoelectric element, adhered to the metallic shielding cover such that the piezoelectric element does not overlay the opening (222a, 222b) in the metallic shielding cover, wherein the piezoelectric element after being enabled is configured to bring a local portion of the metallic shielding cover into vibration to change a volume of the accommodating chamber and to make air flow into or out of the accommodating chamber via the opening (222a, 222b).
An anti-rust coating composition comprising an alkyl silicate condensate having a weight average molecular weight of 1,500 to 8,000, zinc powder, and one or more pigments selected from the group consisting of an extender pigment, an anti-rust pigment and a color pigment, the pigment being neither the zinc powder nor a conductive pigment, wherein the conductive pigment is selected from the group consisting of zinc oxide, carbon powder and metal powder other than the zinc powder and molybdenum, a mass ratio of the zinc powder to the pigment ( /) is 2.0 to 5.0, and the pigment volume concentration is 60 to 70%, wherein the weight average molecular weight and the pigment volume concentration are determined as described in the description. the conductive pigment is selected from the group consisting of zinc oxide, carbon powder and metal powder other than the zinc powder and molybdenum, a mass ratio of the zinc powder to the pigment ( /) is 2.0 to 5.0, and the pigment volume concentration is 60 to 70%, wherein the weight average molecular weight and the pigment volume concentration are determined as described in the description.
A piston for an internal combustion engine, the piston comprising: a body comprising, at an upper part of the body, a crown comprising a combustion chamber where fuel is burnt and comprising, at a lower part of the body, a piston pin boss into which a piston pin is inserted and a skirt corresponding to a cylinder wall; and a cooling channel comprising a refrigerant channel provided in the body to allow a refrigerant to flow therethrough to cool the body, a refrigerant inlet provided at a side of the refrigerant channel, and a refrigerant outlet provided at the other side of the refrigerant channel, wherein a cross section of the cooling channel has an overall elliptic shape to reduce stress occurring at an upper side of the cooling channel when the fuel is burnt in the internal combustion engine, wherein the piston further comprises a reinforced part having a shape of an elliptical arc (EA-4) of a quadratic curve and provided at a lower surface of the crown and a part where the piston pin boss is connected to the skirt, wherein a ratio of a minor axis to a major axis of the elliptical arc (EA-4) is 55 % to 60 %. a body comprising, at an upper part of the body, a crown comprising a combustion chamber where fuel is burnt and comprising, at a lower part of the body, a piston pin boss into which a piston pin is inserted and a skirt corresponding to a cylinder wall; and a cooling channel comprising a refrigerant channel provided in the body to allow a refrigerant to flow therethrough to cool the body, a refrigerant inlet provided at a side of the refrigerant channel, and a refrigerant outlet provided at the other side of the refrigerant channel, wherein a cross section of the cooling channel has an overall elliptic shape to reduce stress occurring at an upper side of the cooling channel when the fuel is burnt in the internal combustion engine, wherein the piston further comprises a reinforced part having a shape of an elliptical arc (EA-4) of a quadratic curve and provided at a lower surface of the crown and a part where the piston pin boss is connected to the skirt, wherein a ratio of a minor axis to a major axis of the elliptical arc (EA-4) is 55 % to 60 %.
Housing for a heating and/or climate control apparatus for vehicles, which housing has receiving space for at least one evaporator and/or heating heat exchanger, shaped in such a way that at least one evaporator and/or heating heat exchanger can be received depending on the type of heating and/or climate control apparatus, characterized in that two housing side covers (13, 15) of the housing which lie opposite one another have in each case at least one region (21, 27) which is prepared for opening by way of a pre-punched portion or portions or predetermined break point or break points, which is/are provided such that, in the case of an evaporator and/or heating heat exchanger which can be received in the housing, at least one connector (23, 25) can be guided selectively by way of the one or the other of the two housing side covers (13, 15) which lie opposite one another through the respective at least one region (21, 27) which is prepared for opening for this purpose.
Application head (6', 6", 6"') for applying a coating product to a surface to be coated, the application head comprising at least two spray nozzles for spraying the coating product, each adapted to project the coating product in the form of a jet of aerosol by simultaneously creating multiple droplets whose diameter is smaller than the diameter of the outlet orifice of the spray nozzle, the application head (6', 6", 6"') being characterised in that it comprises one or more additional jetting nozzles, separate from the spray nozzles, the additional jetting nozzles being adapted to generate a jet drop by drop of coating product.