mhurhangee/patent-ind-claim-en huggingface dataset:
A propylene copolymer composition comprising A) a propylene butylene copolymer which is - free of phthalic acid esters as well as decomposition products thereof; - obtained by a Ziegler-Natta catalyst and B) at least one α-nucleating agent, the propylene copolymer composition having - a MFR (2.16kg/210°C) in the range of 2 to 100 g/10min - a melting point Tm of less than 140°C - a melting point Tm of at least 150 °C, said Tm being associated with more than 75% of the total melting enthalpy and whereby the propylene copolymer - has monomer units derived from a) propylene in an amount of 90.0-98.0 mol.-% b) butylene in an amount of 2.0-10.0 mol.-% with respect to the total weight of the propylene butylene copolymer - an isotacticity mm% as determined by 13C NMR spectroscopy of below 99.0 %; and - a Koenig-B parameter with respect to butylene as determined by 13 C NMR spectroscopy of more than 0.98, wherein free of phthalic acid esters as well as decomposition products thereof indicates a maximum of 10 μg/kg, i.e. 10 ppb by weight. A) a propylene butylene copolymer which is - free of phthalic acid esters as well as decomposition products thereof; - obtained by a Ziegler-Natta catalyst and - free of phthalic acid esters as well as decomposition products thereof; - obtained by a Ziegler-Natta catalyst and B) at least one α-nucleating agent, the propylene copolymer composition having - a MFR (2.16kg/210°C) in the range of 2 to 100 g/10min - a melting point Tm of less than 140°C - a melting point Tm of at least 150 °C, said Tm being associated with more than 75% of the total melting enthalpy - a MFR (2.16kg/210°C) in the range of 2 to 100 g/10min - a melting point Tm of less than 140°C - a melting point Tm of at least 150 °C, said Tm being associated with more than 75% of the total melting enthalpy and whereby the propylene copolymer - has monomer units derived from a) propylene in an amount of 90.0-98.0 mol.-% b) butylene in an amount of 2.0-10.0 mol.-% with respect to the total weight of the propylene butylene copolymer - an isotacticity mm% as determined by 13C NMR spectroscopy of below 99.0 %; and - a Koenig-B parameter with respect to butylene as determined by 13 C NMR spectroscopy of more than 0.98, - has monomer units derived from a) propylene in an amount of 90.0-98.0 mol.-% b) butylene in an amount of 2.0-10.0 mol.-% with respect to the total weight of the propylene butylene copolymer a) propylene in an amount of 90.0-98.0 mol.-% b) butylene in an amount of 2.0-10.0 mol.-% - an isotacticity mm% as determined by 13C NMR spectroscopy of below 99.0 %; and - a Koenig-B parameter with respect to butylene as determined by 13 C NMR spectroscopy of more than 0.98, wherein free of phthalic acid esters as well as decomposition products thereof indicates a maximum of 10 μg/kg, i.e. 10 ppb by weight.
Method for treating textile articles (L) in a laundry washing machine , the washing machine comprising an inner volume (V) wherein said articles (L) are contained, movimentation means configured to move said articles (L) within said volume (V) and steaming means configured to generate steam to be delivered within said volume (V) for preventing or reducing the bacterial growth on said articles (L), the method comprising the steps of: a) performing a heating phase (HP), during which: - said movimentation means are switched on at least most of the time and - said steaming means are switched on at least most of the time; b) performing a cooling phase (CP), during which: - said movimentation means are continuously or intermittently switched on and - said steaming means are switched off at least most of the time; c) repeating at least once steps a) and b), wherein at the beginning of the method a washing phase (WP) takes place and wherein said articles (L) are wet during steps a) to c). a) performing a heating phase (HP), during which: - said movimentation means are switched on at least most of the time and - said steaming means are switched on at least most of the time; - said movimentation means are switched on at least most of the time and - said steaming means are switched on at least most of the time; b) performing a cooling phase (CP), during which: - said movimentation means are continuously or intermittently switched on and - said steaming means are switched off at least most of the time; - said movimentation means are continuously or intermittently switched on and - said steaming means are switched off at least most of the time; c) repeating at least once steps a) and b),
A rear linkage element of a bicycle driven by an electric motor, comprising a drive device for a bicycle driven by an electric motor, comprising a main frame having a swing arm bearing , and a rear linkage element arranged at the swing arm bearing , the drive device comprising: a pedal crank as a first drive for providing a first drive force, the first drive comprising a first drive shaft , a center electric motor as a second drive for providing a second drive force, and an output element comprising an output shaft , the output element being configured to receive the first and/or second drive forces and transfer the same to the wheel of the bicycle to be driven, wherein the center axis of the output shaft is radially distanced (R 1 ) from the center axis of the first drive shaft and the output shaft is arranged relative to the swing arm bearing such that a radial distance (R 2 ) between the center axis of the swing arm bearing and the center axis of the output shaft is smaller than a radial distance (R 3 ) between the center axis of the swing arm bearing and the center axis of the first drive shaft , characterized in that the rear linkage element is implemented as a multi pivot comprising an instant center (M 1 ) as an instantaneous center of rotation, and the rear linkage element is positioned at the main frame such that the bicycle comprises a suspension oblique angle α of 5° to 30°, preferably 10° to 20° and even more preferably of about 15° if the bicycle is subjected to a static load resulting in a negative spring deflection between 10% and 35% of the total spring deflection. a pedal crank as a first drive for providing a first drive force, the first drive comprising a first drive shaft , a center electric motor as a second drive for providing a second drive force, and an output element comprising an output shaft , the output element being configured to receive the first and/or second drive forces and transfer the same to the wheel of the bicycle to be driven, wherein the center axis of the output shaft is radially distanced (R 1 ) from the center axis of the first drive shaft and the output shaft is arranged relative to the swing arm bearing such that a radial distance (R 2 ) between the center axis of the swing arm bearing and the center axis of the output shaft is smaller than a radial distance (R 3 ) between the center axis of the swing arm bearing and the center axis of the first drive shaft , characterized in that the rear linkage element is implemented as a multi pivot comprising an instant center (M 1 ) as an instantaneous center of rotation, and the rear linkage element is positioned at the main frame such that the bicycle comprises a suspension oblique angle α of 5° to 30°, preferably 10° to 20° and even more preferably of about 15° if the bicycle is subjected to a static load resulting in a negative spring deflection between 10% and 35% of the total spring deflection.
Chain magazine for holding tools for a machine tool, in particular tools for machining, comprising a continuous chain which has chain links each with at least one tool holder and with which at least one sprocket which is drivable meshes and a guide device (9-12) for guiding the chain, wherein the guide device (9-12) has a guide element that can be moved back and forth between a first and a second position, by means of which a tool holder of a chain link can be turned in and turned out, characterized in that the guide element is arranged pivotably about a pivoting axis and the pivoting axis coincides with an axis of articulation (X) of a chain link arranged in the guide element .
A refrigerant recovery system comprising: an extraction pipe that is connectable to a refrigerant extraction port of an air conditioning apparatus that has refrigerant; a stabilizer holding container that is connected to the extraction pipe, holds a stabilizer (A), and causes the gas refrigerant guided by the extraction pipe to come into contact with the stabilizer; a recovery pipe that guides the refrigerant discharged from the stabilizer holding container; a recovery container that is connected to the recovery pipe and recovers the refrigerant guided by the recovery pipe; a heat exchanger configured to condense the refrigerant into liquid; and a recovery device that causes the refrigerant to move from the refrigerant extraction port to the recovery container, wherein the refrigerant includes a compound represented by a molecular formula having one or more carbon-carbon unsaturated bonds. an extraction pipe that is connectable to a refrigerant extraction port of an air conditioning apparatus that has refrigerant; a stabilizer holding container that is connected to the extraction pipe, holds a stabilizer (A), and causes the gas refrigerant guided by the extraction pipe to come into contact with the stabilizer; a recovery pipe that guides the refrigerant discharged from the stabilizer holding container; a recovery container that is connected to the recovery pipe and recovers the refrigerant guided by the recovery pipe; a recovery device that causes the refrigerant to move from the refrigerant extraction port to the recovery container, wherein the refrigerant includes a compound represented by a molecular formula having one or more carbon-carbon unsaturated bonds.
Process for welding a conductor onto a workpiece , wherein the conductor comprises a first metal and the workpiece comprises a second metal , with the following steps: removing an insulation of the conductor over a predetermined length ; forming a bead in a stripped region of the conductor ; holding down the conductor on the workpiece , the holding down having the effect of producing a mechanical contact in a welding region between the conductor and the workpiece , wherein the welding region is arranged in the region of the bead; laser welding of the conductor onto the workpiece in the welding region , characterized in that , after the laser welding, the conductor is welded to the workpiece in a further welding region by means of laser welding, that the forming of the bead takes place in such a way that the conductor initially lies in contact with the welding region and does not lie in contact with the further welding region , that the thermal expansion during the laser welding in the welding region has the effect that the conductor is deformed in such a way that the conductor subsequently lies in contact with the further welding region .
A method for characterizing the shear force resistance of a beam , the beam comprising a test portion that extends between two end portions of the beam, during which: - the beam bears transversely on a first support and a second support , - a main cylinder exerts on the beam a bending force ( F ), said force being applied between the first support and the second support , transversely with respect to the beam , characterized in that counter-bending forces ( R a 1 , R' a 1 , R a 2 , R ' a 2 ), from which results a compensating bending moment (Mc) that is opposed to the bending moment (M P ) due to said bending force ( F ), are exerted on the beam by means of two additional cylinders . - the beam bears transversely on a first support and a second support , - a main cylinder exerts on the beam a bending force ( F ), said force being applied between the first support and the second support , transversely with respect to the beam , characterized in that counter-bending forces ( R a 1 , R' a 1 , R a 2 , R ' a 2 ), from which results a compensating bending moment (Mc) that is opposed to the bending moment (M P ) due to said bending force ( F ), are exerted on the beam by means of two additional cylinders .
A process for synthesis of a catalyst for the oxidative dehydrogenation of paraffins via the hydrothermal treatment comprising: i) preparing an aqueous slurry comprising Mo, V, Nb and Te salts in a molar ratio of Mo 1.0: V 0.4 to 0.8; Nb to 0.25; and Te 0.15 to 0.25 at a temperature from 25°C to 80°C; ii) conducting a hydrothermal treatment of the aqueous slurry by heating the slurry in a reaction vessel to a temperature from 100° to 180°C, preferably from 120°C to 150°C, at a pressure above atmospheric and up to 10 psig (68.9 kPag) for a period of time not less than 21 hours with agitation and simultaneous removal of gaseous byproduct species produced during the reaction; iii) letting the reactor cool and recovering, drying and calcining the solid product wherein said solid product is a precatalyst having the formula Mo 1.0 V 0.12-0.19 Te 0.14-0.16 Nb 0.15 O d measured by PIXE and where d is a number to satisfy the valence of the oxide and iv) treating the calcined solid with hydrogen peroxide to give a catalyst comprising Mo, V, Nb and Te in the following molar ratios as determined by PIXE: Mo 1.0:V 0.17-0.20 : Te 0.06-0.07 : Nb 0.19-0.20. i) preparing an aqueous slurry comprising Mo, V, Nb and Te salts in a molar ratio of Mo 1.0: V 0.4 to 0.8; Nb to 0.25; and Te 0.15 to 0.25 at a temperature from 25°C to 80°C; ii) conducting a hydrothermal treatment of the aqueous slurry by heating the slurry in a reaction vessel to a temperature from 100° to 180°C, preferably from 120°C to 150°C, at a pressure above atmospheric and up to 10 psig (68.9 kPag) for a period of time not less than 21 hours with agitation and simultaneous removal of gaseous byproduct species produced during the reaction; iii) letting the reactor cool and recovering, drying and calcining the solid product wherein said solid product is a precatalyst having the formula Mo 1.0 V 0.12-0.19 Te 0.14-0.16 Nb 0.15 O d measured by PIXE and where d is a number to satisfy the valence of the oxide and iv) treating the calcined solid with hydrogen peroxide to give a catalyst comprising Mo, V, Nb and Te in the following molar ratios as determined by PIXE: Mo 1.0:V 0.17-0.20 : Te 0.06-0.07 : Nb 0.19-0.20.
A method of wireless communication performed by a user equipment, UE, comprising: transmitting a beam failure recovery, BFR, request based at least in part on detecting a beam failure that occurred while the UE is in a discontinuous reception, DRX, mode; receiving a response to the BFR request, wherein the response uses a particular structure based at least in part on the beam failure occurring during the DRX mode, the method characterised by , wherein the particular structure is a downlink control channel without a scheduling grant, and; determining that the BFR procedure is not to be performed until a wakeup signal is received based at least in part on the BFR response. transmitting a beam failure recovery, BFR, request based at least in part on detecting a beam failure that occurred while the UE is in a discontinuous reception, DRX, mode; receiving a response to the BFR request, wherein the response uses a particular structure based at least in part on the beam failure occurring during the DRX mode, the method characterised by , wherein the particular structure is a downlink control channel without a scheduling grant, and; determining that the BFR procedure is not to be performed until a wakeup signal is received based at least in part on the BFR response.
An asymmetric device for regulating blood volume distribution across a patient's atrial septum, the device comprising: a first flared expandable end region having an inlet end , the first flared expandable end region being configured to transition from a contracted delivery state to an expanded deployed state in which the first flared expandable end region partially engages a left side of the atrial septum and extends into the patient's left atrium and the inlet end of the first flared expandable end region is in a first plane; a second flared expandable end region having an outlet end , the second flared expandable end region being configured to transition from a contracted delivery state to an expanded deployed state in which the second flared expandable end region partially engages a right side of the atrial septum and extends into the patient's right atrium and the outlet end of the second flared expandable end region is in a second plane; and a neck region joining the first flared expandable end region to the second flared expandable end region , the neck region configured for placement in the patient's atrial septum, wherein diameters of the first and second flared expandable end regions are selected to stabilize the device at the atrial septum, and wherein the first plane intersects the second plane such that blood exits the outlet end at a different angle from a direction of blood flow path through the inlet end . a first flared expandable end region having an inlet end , the first flared expandable end region being configured to transition from a contracted delivery state to an expanded deployed state in which the first flared expandable end region partially engages a left side of the atrial septum and extends into the patient's left atrium and the inlet end of the first flared expandable end region is in a first plane; a second flared expandable end region having an outlet end , the second flared expandable end region being configured to transition from a contracted delivery state to an expanded deployed state in which the second flared expandable end region partially engages a right side of the atrial septum and extends into the patient's right atrium and the outlet end of the second flared expandable end region is in a second plane; and a neck region joining the first flared expandable end region to the second flared expandable end region , the neck region configured for placement in the patient's atrial septum, wherein diameters of the first and second flared expandable end regions are selected to stabilize the device at the atrial septum, and wherein the first plane intersects the second plane such that blood exits the outlet end at a different angle from a direction of blood flow path through the inlet end .
Automated preparation method for a blank in a processing machine, the processing machine being a dental milling machine, the processing machine comprising a housing and a spindle unit with an electric motor , control and electrical supply of the processing machine being implemented by way of a control device , comprising a computer unit for creating processing programs for the manufacture of workpieces, a workpiece holder and an image capturing unit for optical capture of image data of a blank accommodated in the workpiece holder , comprising the following steps: - fastening a blank in the processing machine , in particular in the workpiece holder , - creating an image of the blank by means of the image capturing unit , - dividing the blank into an already processed region and into an unprocessed region on the basis of the captured image data, - assigning a workpiece geometry to be produced to the unprocessed region of the blank and - carrying out the milling processing. the processing machine comprising a housing and a spindle unit with an electric motor , control and electrical supply of the processing machine being implemented by way of a control device , comprising a computer unit for creating processing programs for the manufacture of workpieces, a workpiece holder and an image capturing unit for optical capture of image data of a blank accommodated in the workpiece holder , comprising the following steps: - fastening a blank in the processing machine , in particular in the workpiece holder , - creating an image of the blank by means of the image capturing unit , - dividing the blank into an already processed region and into an unprocessed region on the basis of the captured image data, - assigning a workpiece geometry to be produced to the unprocessed region of the blank and - carrying out the milling processing. - fastening a blank in the processing machine , in particular in the workpiece holder , - creating an image of the blank by means of the image capturing unit , - dividing the blank into an already processed region and into an unprocessed region on the basis of the captured image data, - assigning a workpiece geometry to be produced to the unprocessed region of the blank and - carrying out the milling processing.
A parking control method for parking a vehicle in accordance with a control instruction for moving along a parking route, the control instruction being based on operation information input to an operation terminal located outside the vehicle, the parking control method performed by a control device and comprising: exchanging first information via a first communication path with the operation terminal , the first information including the operation information; exchanging second information via a second communication path with the operation terminal , the second information including presentation information regarding parking control, the presentation information being presented on the operation terminal ; and when a first evaluation value regarding communication quality of the first communication path is less than a first threshold and when a second evaluation value regarding communication quality of the second communication path is not less than a second threshold, exchanging at least part of the first information via the second communication path and reducing a first information amount of the first information; and when the second evaluation value regarding the communication quality of the second communication path is less than the second threshold, exchanging at least part of the second information via one or more other communication paths than the second communication path and reducing an information amount of the second information. exchanging first information via a first communication path with the operation terminal , the first information including the operation information; exchanging second information via a second communication path with the operation terminal , the second information including presentation information regarding parking control, the presentation information being presented on the operation terminal ; and when a first evaluation value regarding communication quality of the first communication path is less than a first threshold and when a second evaluation value regarding communication quality of the second communication path is not less than a second threshold, exchanging at least part of the first information via the second communication path and reducing a first information amount of the first information; and when the second evaluation value regarding the communication quality of the second communication path is less than the second threshold, exchanging at least part of the second information via one or more other communication paths than the second communication path and reducing an information amount of the second information.