mhurhangee/patent-ind-claim-en huggingface dataset:
Diagnostic method for checking the functionality of a particle filter with a catalytically active coating for the exhaust-gas aftertreatment of an internal combustion engine in an exhaust-gas duct of the internal combustion engine , wherein the particle filter is arranged in the exhaust-gas duct downstream of a three-way catalytic converter , comprising the following steps: - operating the internal combustion engine with a stoichiometric combustion air ratio λ E = 1, wherein the exhaust gas of the internal combustion engine is conducted through the exhaust-gas duct and the particle filter with the catalytically active coating is subjected to a stoichiometric exhaust gas λ A = 1, - subjecting the particle filter with the catalytically active coating to a superstoichiometric exhaust gas λ A > 1, wherein the internal combustion engine is operated with a stoichiometric combustion air ratio λ E = 1 and additional secondary air is injected into the exhaust-gas duct downstream of the three-way catalytic converter and upstream of the particle filter , - ascertaining a reaction of the particle filter to a superstoichiometric exhaust gas, - operating the internal combustion engine with a substoichiometric combustion air ratio λ E < 1, with a substoichiometric exhaust gas λ A < 1 likewise prevailing at the particle filter , - ascertaining a reaction of the particle filter to a substoichiometric exhaust gas, wherein - during the subjecting of the particle filter to a superstoichiometric exhaust gas, the oxygen storage capacity (OSC) of the particle filter is determined, and wherein - during the substoichiometric operation of the internal combustion engine , an oxygen release capacity (RSC) from the particle filter is determined. - operating the internal combustion engine with a stoichiometric combustion air ratio λ E = 1, wherein the exhaust gas of the internal combustion engine is conducted through the exhaust-gas duct and the particle filter with the catalytically active coating is subjected to a stoichiometric exhaust gas λ A = 1, - subjecting the particle filter with the catalytically active coating to a superstoichiometric exhaust gas λ A > 1, wherein the internal combustion engine is operated with a stoichiometric combustion air ratio λ E = 1 and additional secondary air is injected into the exhaust-gas duct downstream of the three-way catalytic converter and upstream of the particle filter , - ascertaining a reaction of the particle filter to a superstoichiometric exhaust gas, - operating the internal combustion engine with a substoichiometric combustion air ratio λ E < 1, with a substoichiometric exhaust gas λ A < 1 likewise prevailing at the particle filter , - ascertaining a reaction of the particle filter to a substoichiometric exhaust gas, wherein - during the subjecting of the particle filter to a superstoichiometric exhaust gas, the oxygen storage capacity (OSC) of the particle filter is determined, and wherein - during the substoichiometric operation of the internal combustion engine , an oxygen release capacity (RSC) from the particle filter is determined.
A pharmaceutically acceptable liquid composition of Asenapine for sublingual or buccal delivery comprising: Asenapine, or a pharmaceutically acceptable salt or hydrate thereof; ethanol; and water, characterized in that the composition is free of polyol and the composition is stable for an extended period of time at normal storage conditions. Asenapine, or a pharmaceutically acceptable salt or hydrate thereof; ethanol; and water, characterized in that the composition is free of polyol and the composition is stable for an extended period of time at normal storage conditions.
A propylene polymer composition comprising: A) from 60wt% to 75wt%, of a propylene homopolymer having a Polydispersity Index (P.I.) value of from 4.3 to 4.9, a fraction insoluble in xylene at 25 °C, higher than 95 %, and MFR (Melt Flow Rate according to ISO 1133, condition L, i.e. 230°C and 2.16 kg load) ranging from 20 to 75 g/10 min; B) from 25wt % to 40wt%, of a copolymer of propylene with from 46.0wt% to 49.0 wt% of ethylene derived units; the composition having an intrinsic viscosity of the fraction soluble in xylene at 25 °C comprised between 2.2 and 2.9 dl/g; and the relation: 10.7 + 1.3 × MFRa − 17.7 × P . I . − 29.3 × IV + 4.9 × Xs is comprised between 40 and 66; wherein MFRa is the melt flow rate of the component A) (Melt Flow Rate according to ISO 1133, condition L, i.e. 230°C and 2.16 kg load) P.I. is the polydispersity index of component A); IV is the intrinsic viscosity of the fraction soluble in xylene at 25 °C; and Xs is the a fraction soluble in xylene at 25°C of the composition. and wherein the amount of A+B is equal to 100wt% A) from 60wt% to 75wt%, of a propylene homopolymer having a Polydispersity Index (P.I.) value of from 4.3 to 4.9, a fraction insoluble in xylene at 25 °C, higher than 95 %, and MFR (Melt Flow Rate according to ISO 1133, condition L, i.e. 230°C and 2.16 kg load) ranging from 20 to 75 g/10 min; B) from 25wt % to 40wt%, of a copolymer of propylene with from 46.0wt% to 49.0 wt% of ethylene derived units; the composition having an intrinsic viscosity of the fraction soluble in xylene at 25 °C comprised between 2.2 and 2.9 dl/g; and the relation: 10.7 + 1.3 × MFRa − 17.7 × P . I . − 29.3 × IV + 4.9 × Xs is comprised between 40 and 66; wherein MFRa is the melt flow rate of the component A) (Melt Flow Rate according to ISO 1133, condition L, i.e. 230°C and 2.16 kg load) P.I. is the polydispersity index of component A); IV is the intrinsic viscosity of the fraction soluble in xylene at 25 °C; and Xs is the a fraction soluble in xylene at 25°C of the composition. and wherein the amount of A+B is equal to 100wt% MFRa is the melt flow rate of the component A) (Melt Flow Rate according to ISO 1133, condition L, i.e. 230°C and 2.16 kg load) P.I. is the polydispersity index of component A); IV is the intrinsic viscosity of the fraction soluble in xylene at 25 °C; and Xs is the a fraction soluble in xylene at 25°C of the composition. and wherein the amount of A+B is equal to 100wt%
Starting device for a combustion engine, wherein the starting device comprises a starting rope to which a starting handle is fixed, wherein the starting device comprises a rope guide for the starting rope , which guides the starting rope from a rope pulley of the starting device to a rope-exit opening , wherein, at the rope-exit opening , there is arranged a guide element which keeps the starting rope in the rope-exit opening , wherein the rope guide comprises at least one deflecting roller , wherein the guide element delimits the rope-exit opening, and wherein the rope-exit opening is arranged along a peripheral portion of the deflecting roller of the rope guide , characterized in that the rope-exit opening extends along the peripheral portion over a peripheral angle (α) of the deflecting roller of at least 60°.
Spine cage holder including: - an elongated body comprising a proximal end and a distal end , the elongated body extending from the proximal end to the distal end , - means for transferring mechanical energy centrally from the proximal end to the distal end through the elongated body , said means being at least partially enclosed by the elongated body , the means for transferring energy being configured to transfer energy centrally through the cage holder in a longitudinal direction of the cage holder , wherein the means for transferring mechanical energy centrally includes a tube extending from the proximal end to the distal end of the elongated body , the tube comprising or consisting of a first material and the elongated body comprising or consisting of a second material different to the first material, the first material having a higher material density than the second material. - an elongated body comprising a proximal end and a distal end , the elongated body extending from the proximal end to the distal end , - means for transferring mechanical energy centrally from the proximal end to the distal end through the elongated body , said means being at least partially enclosed by the elongated body , the means for transferring energy being configured to transfer energy centrally through the cage holder in a longitudinal direction of the cage holder , wherein the means for transferring mechanical energy centrally includes a tube extending from the proximal end to the distal end of the elongated body , the tube comprising or consisting of a first material and the elongated body comprising or consisting of a second material different to the first material, the first material having a higher material density than the second material.
A method of measuring rotor speed, comprising: positioning a sensor opposite a target , the target being one of integral with the rotor or being connected to the rotor to rotate at a speed proportional to the speed of the rotor, said target including a plurality of features ; measuring a period corresponding to time between each of said plurality of features on said target passing said sensor; establishing an array of said periods, said array including up to a preselected number of said periods; removi ng old periods from said array when new periods are added and said preselected number of periods is reached; calculating an average period from said periods in said array, said average period corresponding to a multiple of complete revolutions of the target, wherein said preselected number of said periods in said array is equal to N multiplied by a, where N is the number of said plurality of features on said target and a is the number of complete revolutions of said target to be considered for said average period; and, calculating rotational speed of a rotor from said average period; wherein the features are one of teeth, projections, ribs or protuberances. positioning a sensor opposite a target , the target being one of integral with the rotor or being connected to the rotor to rotate at a speed proportional to the speed of the rotor, said target including a plurality of features ; measuring a period corresponding to time between each of said plurality of features on said target passing said sensor; establishing an array of said periods, said array including up to a preselected number of said periods; removi ng old periods from said array when new periods are added and said preselected number of periods is reached; calculating an average period from said periods in said array, said average period corresponding to a multiple of complete revolutions of the target, wherein said preselected number of said periods in said array is equal to N multiplied by a, where N is the number of said plurality of features on said target and a is the number of complete revolutions of said target to be considered for said average period; and, calculating rotational speed of a rotor from said average period; wherein the features are one of teeth, projections, ribs or protuberances.
Tow bar for towing or pushing aircrafts on their nose landing gear comprising - a base body , - a drag head , the base body being positively coupled via at least one shear pin to the drag head adjoining it in the longitudinal direction , - the base body having, in the end region facing away from the drag head , the first free end region of the tow bar , a towing coupling for coupling a towing vehicle , and - the drag head has, in the end region facing away from the base body , the second free end region of the tow bar , an aircraft coupling for coupling the nose gear of the aircraft to be towed, - a tow bar landing gear having at least one pair of two wheels (20a, b), and - an extension device for extending the wheels (20a, b) relative to the main body , characterized in that - the extension device comprises an electric extension drive with an extension motor , - the tow bar comprises a power source as power supply of the electric extension drive, - the tow bar comprises an actuating element for activating the electric extension drive. - a base body , - a drag head , the base body being positively coupled via at least one shear pin to the drag head adjoining it in the longitudinal direction , - the base body having, in the end region facing away from the drag head , the first free end region of the tow bar , a towing coupling for coupling a towing vehicle , and - the drag head has, in the end region facing away from the base body , the second free end region of the tow bar , an aircraft coupling for coupling the nose gear of the aircraft to be towed, - a tow bar landing gear having at least one pair of two wheels (20a, b), and - an extension device for extending the wheels (20a, b) relative to the main body , - the extension device comprises an electric extension drive with an extension motor , - the tow bar comprises a power source as power supply of the electric extension drive, - the tow bar comprises an actuating element for activating the electric extension drive.
A heat exchanger comprising: a base ; and a plurality of fins extending from the base, wherein each fin of the plurality of fins comprises: a base end connected to the base; a distal end opposite the base end; a first section comprising a first material, wherein the first section extends from the base end to the distal end; and a second section comprising a second material, wherein the second section extends from the base end to the distal end, and wherein the first material and the second material have different coefficients of thermal expansion, the distal end of a first fin of the plurality of fins is configured to contact a second fin when the heat exchanger is at a first temperature; the first fin is configured to not contact the second fin when the heat exchanger is at a second temperature; characterized in that the base end of each fin of the plurality of fins is wider than the distal end of each fin of the plurality of fins. a base ; and a plurality of fins extending from the base, wherein each fin of the plurality of fins comprises: a base end connected to the base; a distal end opposite the base end; a first section comprising a first material, wherein the first section extends from the base end to the distal end; and a second section comprising a second material, wherein the second section extends from the base end to the distal end, and wherein the first material and the second material have different coefficients of thermal expansion, the distal end of a first fin of the plurality of fins is configured to contact a second fin when the heat exchanger is at a first temperature; the first fin is configured to not contact the second fin when the heat exchanger is at a second temperature; characterized in that the base end of each fin of the plurality of fins is wider than the distal end of each fin of the plurality of fins. a base end connected to the base; a distal end opposite the base end; a first section comprising a first material, wherein the first section extends from the base end to the distal end; and a second section comprising a second material, wherein the second section extends from the base end to the distal end, and wherein the first material and the second material have different coefficients of thermal expansion, the distal end of a first fin of the plurality of fins is configured to contact a second fin when the heat exchanger is at a first temperature; the first fin is configured to not contact the second fin when the heat exchanger is at a second temperature; characterized in that the base end of each fin of the plurality of fins is wider than the distal end of each fin of the plurality of fins.
A sanitary fitting , at least comprising: - a fitting housing , - a first jet-forming element , - a second jet-forming element , and - a two-way valve which can be used to selectively supply a liquid to the first jet-forming element or to the second jet-forming element , wherein the two-way valve is arranged in the fitting housing and has a valve body which is mounted to be rotatable about an axis of rotation in a valve housing of the two-way valve between a first valve seat of a first outlet of the two-way valve and a second valve seat of a second outlet of the two-way valve , wherein the valve body has a first sealing surface for the first valve seat and a second sealing surface for the second valve seat , wherein the first sealing surface and the second sealing surface form a first angle , characterized in that the first sealing surface is arranged on a first valve body arm of the valve body and the second sealing surface is arranged on a second valve body arm of the valve body . - a fitting housing , - a first jet-forming element , - a second jet-forming element , and - a two-way valve which can be used to selectively supply a liquid to the first jet-forming element or to the second jet-forming element , wherein the two-way valve is arranged in the fitting housing and has a valve body which is mounted to be rotatable about an axis of rotation in a valve housing of the two-way valve between a first valve seat of a first outlet of the two-way valve and a second valve seat of a second outlet of the two-way valve , wherein the valve body has a first sealing surface for the first valve seat and a second sealing surface for the second valve seat , wherein the first sealing surface and the second sealing surface form a first angle , characterized in that the first sealing surface is arranged on a first valve body arm of the valve body and the second sealing surface is arranged on a second valve body arm of the valve body .
An apparatus for applying a cleaning material to a moving flexible electronics web , the apparatus comprising: a roll of cleaning material attached to a moving cleaner device that places a portion of the cleaning material against a portion of a continuously moving flexible electronics web surface to clean debris from that portion of the moving flexible electronics web surface using the portion of the cleaning material ; and wherein the continuously moving flexible electronics web surface has a plurality of portions and each portion moves over a cleaning point over time and the cleaning material roll has a plurality of portions and each portion of the cleaning material is adjacent the cleaning point over time and the cleaning material moves at a same speed and direction as the moving flexible electronics web surface so that the continuous moving flexible electronics web surface is cleaned, wherein the moving cleaner device further comprises a source cylinder and a take-up cylinder wherein the cleaning material is rolled off of the source cylinder and rolled onto the take-up cylinder after the cleaning material has cleaned the moving flexible electronics web surface, wherein the cleaning material further comprises a cleaning layer being one of a polyimide layer and a silicone containing polymer layer, wherein the cleaning layer has adhesive properties. a roll of cleaning material attached to a moving cleaner device that places a portion of the cleaning material against a portion of a continuously moving flexible electronics web surface to clean debris from that portion of the moving flexible electronics web surface using the portion of the cleaning material ; and wherein the continuously moving flexible electronics web surface has a plurality of portions and each portion moves over a cleaning point over time and the cleaning material roll has a plurality of portions and each portion of the cleaning material is adjacent the cleaning point over time and the cleaning material moves at a same speed and direction as the moving flexible electronics web surface so that the continuous moving flexible electronics web surface is cleaned, wherein the moving cleaner device further comprises a source cylinder and a take-up cylinder wherein the cleaning material is rolled off of the source cylinder and rolled onto the take-up cylinder after the cleaning material has cleaned the moving flexible electronics web surface, wherein the cleaning material further comprises a cleaning layer being one of a polyimide layer and a silicone containing polymer layer, wherein the cleaning layer has adhesive properties.
A peptide of the following formula (I): or a pharmaceutically acceptable salt thereof, for use in the treatment of cancer.
A pump comprising: a seal wash housing having a pair of opposing surfaces and a bore that extends between the surfaces ; and a pump head , wherein. the pump head has a sealing surface having a first opening and a second opening , the sealing surface abutting one of the surfaces of the seal wash housing and having a chamber extending from the first opening , the second opening configured to pass a fluid to an outlet port of the pump head ; the seal wash housing having a gland , wherein the bore extends through the gland , a rod extending through the bore and into the chamber through the first opening ; a seal assembly disposed in the gland of the seal wash housing and having a sealing surface abutting the sealing surface of the pump head in a surface region that encloses the first and second openings ; and a wear-resistant coating disposed on the sealing surface of the pump head at least in a surface region where the sealing surface of the seal assembly abuts the sealing surface of the pump head . a seal wash housing having a pair of opposing surfaces and a bore that extends between the surfaces ; and a pump head , wherein. the pump head has a sealing surface having a first opening and a second opening , the sealing surface abutting one of the surfaces of the seal wash housing and having a chamber extending from the first opening , the second opening configured to pass a fluid to an outlet port of the pump head ; the seal wash housing having a gland , wherein the bore extends through the gland , a rod extending through the bore and into the chamber through the first opening ; a seal assembly disposed in the gland of the seal wash housing and having a sealing surface abutting the sealing surface of the pump head in a surface region that encloses the first and second openings ; and a wear-resistant coating disposed on the sealing surface of the pump head at least in a surface region where the sealing surface of the seal assembly abuts the sealing surface of the pump head .