mhurhangee/patent-ind-claim-en huggingface dataset:
An oxidation catalyst for removing, by oxidation, at least one of carbon monoxide and hydrocarbons contained in exhaust gas, comprising a mixture of: a catalyst (A) comprising a first oxide support containing 25% by mass or more of titania, and copper oxide supported on the first oxide support; and a catalyst (B) comprising a second oxide support containing 80% by mass or more of one or more oxides selected from alumina, ceria, and zirconia, and a noble metal supported on the second oxide support wherein the first oxide support comprises at least one of titania, composite metal oxides having a titania content of 50% by mass or more, and titania-supporting materials in which titania is supported on a metal oxide at a ratio of 25% by mass or more wherein a mixing ratio of the catalyst (A) and the catalyst (B) in the mixture is 1:9 to 9:1 in terms of a mass ratio ((A):(B)); the copper oxide is supported on the first oxide support at a ratio of 1 to 30% by mass in the catalyst (A); the noble metal is supported on the second oxide support at a ratio of 0.01 to 10% by mass in the catalyst (B). a catalyst (A) comprising a first oxide support containing 25% by mass or more of titania, and copper oxide supported on the first oxide support; and a catalyst (B) comprising a second oxide support containing 80% by mass or more of one or more oxides selected from alumina, ceria, and zirconia, and a noble metal supported on the second oxide support wherein the first oxide support comprises at least one of titania, composite metal oxides having a titania content of 50% by mass or more, and titania-supporting materials in which titania is supported on a metal oxide at a ratio of 25% by mass or more wherein a mixing ratio of the catalyst (A) and the catalyst (B) in the mixture is 1:9 to 9:1 in terms of a mass ratio ((A):(B)); the copper oxide is supported on the first oxide support at a ratio of 1 to 30% by mass in the catalyst (A); the noble metal is supported on the second oxide support at a ratio of 0.01 to 10% by mass in the catalyst (B).
A three-dimensional modeling apparatus for producing a three-dimensional object (OB) using a solid thermoplastic material, the three-dimensional modeling apparatus comprising: a drive motor (M); a plasticizing section having a flat screw and a screw facing section ; and a nozzle configured to inject the molten material, wherein the flat screw has a plurality of material inlets that are formed on a side surface of the flat screw and a scroll-groove formed surface on which a plurality of scroll grooves that are continuous with the material inlets are formed in a shape like the involute of a circle or a spiral shape from an outer periphery of the flat screw toward a central portion of the scroll-groove formed surface , wherein the flat screw is configured to be rotated by the drive motor, wherein the screw facing section has a screw facing surface that faces the scroll-groove formed surface , a communication hole and a heater , the heater being embedded in the screw facing section , and wherein the screw facing surface has a plurality of guide grooves formed in a spiral shape, and further wherein the plasticizing section is configured to plasticize the solid material, supplied between the flat screw and the screw facing section, by rotation of the flat screw and heating by the heater to convert the material into a molten material. a drive motor (M); a plasticizing section having a flat screw and a screw facing section ; and a nozzle configured to inject the molten material, wherein the flat screw has a plurality of material inlets that are formed on a side surface of the flat screw and a scroll-groove formed surface on which a plurality of scroll grooves that are continuous with the material inlets are formed in a shape like the involute of a circle or a spiral shape from an outer periphery of the flat screw toward a central portion of the scroll-groove formed surface , wherein the flat screw is configured to be rotated by the drive motor, wherein the screw facing section has a screw facing surface that faces the scroll-groove formed surface , a communication hole and a heater , the heater being embedded in the screw facing section , and wherein the screw facing surface has a plurality of guide grooves formed in a spiral shape, and further wherein the plasticizing section is configured to plasticize the solid material, supplied between the flat screw and the screw facing section, by rotation of the flat screw and heating by the heater to convert the material into a molten material.
A crystalline molecular complex comprising zoledronic acid, DL-lysine, and water, wherein the bioavailability of the zoledronic acid from the crystalline molecular complex is greater than the bioavailability of the zoledronic acid without DL-lysine; wherein the zoledronic acid in the crystalline molecular complex has improved aqueous solubility compared to zoledronic acid without DL-lysine.
A process for making a compound of Formula I or a pharmaceutically acceptable salt thereof, wherein: X is selected from -C(R 3 )= or -N=, wherein R 3 is hydrogen, F or CN; Y is CH or N; R 1 is selected from the group consisting of: C 1-4 alkyl, cyclopropylmethyl, cyclobutylmethyl and [1-(trifluoromethyl)cyclopropyl]methyl, each of which is optionally substituted with one or more substituents as allowed by valence independently selected from the group consisting of: F and hydroxy; and R 2 is selected from hydrogen, methyl, F, Cl, or Br; comprising crystallizing the Formula A in the presence of an arylaldehyde derivative and a first acid in a first organic solvent to yield the compound of Formula B as a salt, and coupling the compound of Formula B with a compound of Formula C or a salt thereof, under conditions for an amide bond formation between an acid and an amine to yield a compound of Formula I. X is selected from -C(R 3 )= or -N=, wherein R 3 is hydrogen, F or CN; Y is CH or N; R 1 is selected from the group consisting of: C 1-4 alkyl, cyclopropylmethyl, cyclobutylmethyl and [1-(trifluoromethyl)cyclopropyl]methyl, each of which is optionally substituted with one or more substituents as allowed by valence independently selected from the group consisting of: F and hydroxy; and R 2 is selected from hydrogen, methyl, F, Cl, or Br;
A method for triggering a series spark gap in which there are at least three partial spark gaps in series, comprising in steady state conditions, dividing a supply voltage (Ucap) acting over the series of partial spark gaps symmetrically between the partial spark gaps by first voltage dividing means (11a-11d), during triggering, bypassing more than half of the partial spark gaps using bypass means such that more than half of the supply voltage (Ucap) acts over the partial spark gaps that are not bypassed, whereby the partial spark gap or the partial spark gaps that are not bypassed ignite, characterised by during triggering, dividing the voltage acting over the bypassed partial spark gaps asymmetrically between the bypassed partial spark gaps using the bypass means comprising auxiliary spark gaps (12a-12c) and resistors (14a-14c) of different sizes in series with a corresponding auxiliary spark gap bypassing a corresponding partial spark gap, whereby the bypassed partial spark gaps ignite sequentially in the order determined by the asymmetric voltage division. in steady state conditions, dividing a supply voltage (Ucap) acting over the series of partial spark gaps symmetrically between the partial spark gaps by first voltage dividing means (11a-11d), during triggering, bypassing more than half of the partial spark gaps using bypass means such that more than half of the supply voltage (Ucap) acts over the partial spark gaps that are not bypassed, whereby the partial spark gap or the partial spark gaps that are not bypassed ignite, characterised by during triggering, dividing the voltage acting over the bypassed partial spark gaps asymmetrically between the bypassed partial spark gaps using the bypass means comprising auxiliary spark gaps (12a-12c) and resistors (14a-14c) of different sizes in series with a corresponding auxiliary spark gap bypassing a corresponding partial spark gap, whereby the bypassed partial spark gaps ignite sequentially in the order determined by the asymmetric voltage division.
A method of rotor position detection for a permanent magnet synchronous motor , the motor having a rotor , a stator and a plurality of stator windings which exhibit saliency, the stator windings being connected from a common point to respective feed points to form respective phases for the motor , wherein: each phase is driven by a PWM excitation voltage derived from a supply voltage (V s ) and applied to the corresponding feed point ; the excitation voltages of the phases have PWM waveforms which are staggered in time to create combinations of excitation states in the phases, the combinations changing with time; measurements of the supply voltage (V s ) and the voltage (V p , V q , V r ) at the common point are taken at a plurality of times corresponding with respective combinations of excitation states; a plurality of values of ratios (p,q,r) are determined, wherein each one of the of the plurality of values of ratios is defined as a ratio of the measured voltage at the common point (V p , V q , V r ) to the measured supply voltage (V s ) for each one of the plurality of times corresponding with respective combinations of excitation states; and position information for the rotor is derived from a comparison of the values of the plurality of ratios (p,q,r) with one another, wherein the comparison is used to identify a range of positions within which the rotor position is contained. each phase is driven by a PWM excitation voltage derived from a supply voltage (V s ) and applied to the corresponding feed point ; the excitation voltages of the phases have PWM waveforms which are staggered in time to create combinations of excitation states in the phases, the combinations changing with time; measurements of the supply voltage (V s ) and the voltage (V p , V q , V r ) at the common point are taken at a plurality of times corresponding with respective combinations of excitation states; a plurality of values of ratios (p,q,r) are determined, wherein each one of the of the plurality of values of ratios is defined as a ratio of the measured voltage at the common point (V p , V q , V r ) to the measured supply voltage (V s ) for each one of the plurality of times corresponding with respective combinations of excitation states; and position information for the rotor is derived from a comparison of the values of the plurality of ratios (p,q,r) with one another, wherein the comparison is used to identify a range of positions within which the rotor position is contained.
Process for preparing a granular nylon salt material comprising steps of: a. providing in a pressure vessel a concentrated aqueous mixture comprising at least 65 wt.% of salt components and at most 35 wt.% of an aqueous medium, the weight percentages (wt.%) being relative to the total weight of the aqueous mixture; b. controlling the concentrated aqueous mixture in the pressure vessel to have a temperature Tp of at least 150 0 C; c. controlling pre-condensation eventually occurring in the concentrated aqueous mixture to remain at a level of at most 15 mole %; and d. discharging the pressure vessel by flashing the concentrated aqueous mixture via a flash valve into a flash chamber, thereby evaporating the aqueous medium in an amount sufficient to result in a residual moisture content of at most 7.5 wt.%, and forming a granular nylon salt material, wherein the wt.% of residual moisture content is relative to the weight of the granular nylon salt material. a. providing in a pressure vessel a concentrated aqueous mixture comprising at least 65 wt.% of salt components and at most 35 wt.% of an aqueous medium, the weight percentages (wt.%) being relative to the total weight of the aqueous mixture; b. controlling the concentrated aqueous mixture in the pressure vessel to have a temperature Tp of at least 150 0 C; c. controlling pre-condensation eventually occurring in the concentrated aqueous mixture to remain at a level of at most 15 mole %; and d. discharging the pressure vessel by flashing the concentrated aqueous mixture via a flash valve into a flash chamber, thereby evaporating the aqueous medium in an amount sufficient to result in a residual moisture content of at most 7.5 wt.%, and forming a granular nylon salt material, wherein the wt.% of residual moisture content is relative to the weight of the granular nylon salt material.
A landing gear system for a vehicle trailer having an HVAC/R system , the landing gear system comprising: a landing gear configured to be raised and lowered to support the vehicle trailer; a motor coupled to the landing gear and configured to raise and lower the landing gear; and a power source operatively connected to the motor, characterised in that the power source is configured for connection with the HVAC/R system . a landing gear configured to be raised and lowered to support the vehicle trailer; a motor coupled to the landing gear and configured to raise and lower the landing gear; and a power source operatively connected to the motor, characterised in that the power source is configured for connection with the HVAC/R system .
A method for preparing an ultraviolet radiation absorbing polymer composition comprising the polymer compound of formula in an esterification / transesterification, which method comprises the steps of reacting a polyglycerol intermediate with a benzotriazole UV-chromophore comprising a complementary functional group to form the UV absorbing polyether compound according to the following reaction scheme: wherein A is hydrogen; or C 1 -C 8 alkyl; and k is a number from 2 to 20; and n and m, independently from each other are a number from 0 to 20; wherein at least one of m and n is ≥ 1. A is hydrogen; or C 1 -C 8 alkyl; and k is a number from 2 to 20; and n and m, independently from each other are a number from 0 to 20; wherein at least one of m and n is ≥ 1.
A rescue hoist comprising: a cable drum rotatable about a cable drum axis; a stationary frame supporting the cable drum; a traction sheave configured to maintain a back tension on a portion of a cable extending between the cable drum and the traction sheave, the traction sheave rotatable about a traction sheave axis; a load sensing device characterised in comprising a load pin extending into a first side of the traction sheave and disposed coaxially with the traction sheave on the traction sheave axis; and a load calculator communicatively connected to the load pin, the load calculator configured to receive a sensed strain from the load pin, to determine an entry angle of the cable to the traction sheave, and to determine the cable load based on the sensed strain and the entry angle; wherein the traction sheave is configured to be rotatably driven relative to the load pin. , wherein, the load pin further comprises: a body including a distal end and a bore extending through the body, the distal end extending at least partially into the traction sheave; a strain gauge mounted within the bore; and a cable disposed on the cable drum in a plurality of cable wrap layers. a cable drum rotatable about a cable drum axis; a stationary frame supporting the cable drum; a traction sheave configured to maintain a back tension on a portion of a cable extending between the cable drum and the traction sheave, the traction sheave rotatable about a traction sheave axis; a load sensing device characterised in comprising a load pin extending into a first side of the traction sheave and disposed coaxially with the traction sheave on the traction sheave axis; and a load calculator communicatively connected to the load pin, the load calculator configured to receive a sensed strain from the load pin, to determine an entry angle of the cable to the traction sheave, and to determine the cable load based on the sensed strain and the entry angle; wherein the traction sheave is configured to be rotatably driven relative to the load pin. a load pin extending into a first side of the traction sheave and disposed coaxially with the traction sheave on the traction sheave axis; and a load calculator communicatively connected to the load pin, the load calculator configured to receive a sensed strain from the load pin, to determine an entry angle of the cable to the traction sheave, and to determine the cable load based on the sensed strain and the entry angle; wherein the traction sheave is configured to be rotatably driven relative to the load pin. , wherein, the load pin further comprises: a body including a distal end and a bore extending through the body, the distal end extending at least partially into the traction sheave; a strain gauge mounted within the bore; and a body including a distal end and a bore extending through the body, the distal end extending at least partially into the traction sheave; a strain gauge mounted within the bore; and a cable disposed on the cable drum in a plurality of cable wrap layers.
A medium processing device comprising: a transaction unit including a transaction port and configured to perform at least one of a process of taking in a medium or a process of taking out the medium through the transaction port ; a cassette mounting unit including a mounting port which is adjacently disposed on an upper side of the transaction port , wherein a medium cassette inserted to the mounting port is capable of being mounted to the cassette mounting unit ; a cassette processing unit configured to perform at least one of a process of carrying in the medium from the medium cassette mounted to the cassette mounting unit or a process of carrying out the medium to the medium cassette ; and a closing member configured to selectively close the transaction port or the mounting port , characterized in that the closing member makes up a placing surface where the medium cassette is placed when the closing member closes the transaction port . a transaction unit including a transaction port and configured to perform at least one of a process of taking in a medium or a process of taking out the medium through the transaction port ; a cassette mounting unit including a mounting port which is adjacently disposed on an upper side of the transaction port , wherein a medium cassette inserted to the mounting port is capable of being mounted to the cassette mounting unit ; a cassette processing unit configured to perform at least one of a process of carrying in the medium from the medium cassette mounted to the cassette mounting unit or a process of carrying out the medium to the medium cassette ; and a closing member configured to selectively close the transaction port or the mounting port , characterized in that the closing member makes up a placing surface where the medium cassette is placed when the closing member closes the transaction port .
An analyzing device comprising a main unit case containing: a feed passage having a microchannel structure for transporting a liquid to be tested to a measuring chamber from a sample feed opening provided on the main unit case ; a separating chamber containing a reagent placed in a dried state and placed for treating a component to be tested in the liquid to be tested; a reservoir connected to the separating chamber via a first branch; and the measuring chamber being connected to the separating chamber via a second branch, the analyzing device being configured to be used for centrifugally transporting the liquid treated in the separating chamber by the reagent to the measuring chamber , and for analyzing the liquid in the measuring chamber by irradiating light, characterized in that a circular reagent retaining portion is provided in the separating chamber , wherein the reagent is placed thereon so as to be in contact with a part of an outer edge of the reagent retaining portion , a peeling portion having circular, triangular, or rectangular form is connected to a part of the outer edge of the reagent retaining portion , the part being not in contact with the reagent , wherein the peeling portion extends outward from the reagent retaining portion on the same top surface. a feed passage having a microchannel structure for transporting a liquid to be tested to a measuring chamber from a sample feed opening provided on the main unit case ; a separating chamber containing a reagent placed in a dried state and placed for treating a component to be tested in the liquid to be tested; a reservoir connected to the separating chamber via a first branch; and the measuring chamber being connected to the separating chamber via a second branch, the analyzing device being configured to be used for centrifugally transporting the liquid treated in the separating chamber by the reagent to the measuring chamber , and for analyzing the liquid in the measuring chamber by irradiating light, characterized in that a circular reagent retaining portion is provided in the separating chamber , wherein the reagent is placed thereon so as to be in contact with a part of an outer edge of the reagent retaining portion , a peeling portion having circular, triangular, or rectangular form is connected to a part of the outer edge of the reagent retaining portion , the part being not in contact with the reagent , wherein the peeling portion extends outward from the reagent retaining portion on the same top surface.
A terminal device for establishing a communication session with a local serving network , the terminal device comprising processing circuitry , the processing circuitry being configured to cause the terminal device to: obtain a modification of a User Equipment Route Selection Policy, URSP, rule and a validity condition; obtain an indication of traffic to be communicated, the traffic being associated with a traffic descriptor; select the User Equipment Route Selection Policy, URSP, rule for the traffic to be communicated in a communication session with the local serving network , the URSP rule being selected in accordance with the traffic descriptor and in accordance with the validity condition, the validity condition at least pertaining to network support for IMS in the local serving network ; and establish a communication session with the local serving network (nob) for communicating the traffic according to the selected URSP rule; wherein the communication session is a protocol data unit, PDU, session; wherein the validity condition pertaining to network support for IMS requires that IMS voice over PS is supported in the local serving network (nob). obtain a modification of a User Equipment Route Selection Policy, URSP, rule and a validity condition; obtain an indication of traffic to be communicated, the traffic being associated with a traffic descriptor; select the User Equipment Route Selection Policy, URSP, rule for the traffic to be communicated in a communication session with the local serving network , the URSP rule being selected in accordance with the traffic descriptor and in accordance with the validity condition, the validity condition at least pertaining to network support for IMS in the local serving network ; and establish a communication session with the local serving network (nob) for communicating the traffic according to the selected URSP rule; wherein the communication session is a protocol data unit, PDU, session;