mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of ethylene glycol and 1,2-propylene glycol from starting material comprising one or more saccharide, wherein the process comprises the steps of: i) providing the starting material and hydrogen to a first reactor and reacting said starting material and hydrogen therein in the presence of a solvent and a first catalyst system comprising a retro-aldol catalyst composition and a hydrogenation catalyst composition; ii) continuously removing a first reactor product stream from the first reactor, said first reactor product stream comprising ethylene glycol, 1,2-propylene glycol and in the range of from 2 to 40 wt% of sugar alcohols; iii) contacting said first reactor product stream in a second reactor in the presence of hydrogen with a second catalyst system comprising at least a hydrogenation catalyst composition; and iv) converting a portion of the sugar alcohols in the second reactor into ethylene glycol and/or 1,2-propylene glycol to provide a second reactor product stream comprising ethylene glycol, 1,2-propylene glycol and in the range of from 10 to 80% of the amount of sugar alcohols present in the first reactor product stream. i) providing the starting material and hydrogen to a first reactor and reacting said starting material and hydrogen therein in the presence of a solvent and a first catalyst system comprising a retro-aldol catalyst composition and a hydrogenation catalyst composition; ii) continuously removing a first reactor product stream from the first reactor, said first reactor product stream comprising ethylene glycol, 1,2-propylene glycol and in the range of from 2 to 40 wt% of sugar alcohols; iii) contacting said first reactor product stream in a second reactor in the presence of hydrogen with a second catalyst system comprising at least a hydrogenation catalyst composition; and iv) converting a portion of the sugar alcohols in the second reactor into ethylene glycol and/or 1,2-propylene glycol to provide a second reactor product stream comprising ethylene glycol, 1,2-propylene glycol and in the range of from 10 to 80% of the amount of sugar alcohols present in the first reactor product stream.
A composition comprising: a) 90-99.9 wt% of polytrimethylene-2,5-furandicarboxylate; and b) 0.1-10 wt% of a neutralized carboxylic acid salt as a nucleating agent, wherein the amounts are based on the total weight of the composition, and wherein the neutralized carboxylic acid salt is a C2-C30 aliphatic carboxylic acid salt or an aromatic carboxylic acid salt. a) 90-99.9 wt% of polytrimethylene-2,5-furandicarboxylate; and b) 0.1-10 wt% of a neutralized carboxylic acid salt as a nucleating agent,
A method of cleaning a collecting electrode of an electrostatic precipitator, comprising a first field, a second field, and a third field, arranged in series and electrically insulated from each other, said electrostatic precipitator operative for removing dust particles from a process gas, each field comprising at least one discharge electrode and at least one collecting electrode, said method comprising: applying, in a first mode of operation, which represents baseline operation for collecting dust particles, a first average current (I 1) between the at least one discharge electrode and the at least one collecting electrode, and switching from the first mode of operation to a second mode of operation in which a second average current (I 2) is applied between the at least one discharge electrode and the at least one collecting electrode, the second average current (I 2) being a factor of at least 3 higher than the first average current (I 1), to achieve a forced cleaning of the at least one collecting electrode, and wherein in the first and second modes of operation, intermittent energization of the electrodes (26, 28) is utilized according to a semi-pulse control scheme, where, in an alternating current input current, not all half-periods are used to feed current to the electrodes, and wherein a charging ratio varies between the fields, and in that a rapping of the at least one collecting electrode of the field being operated in the second mode of operation is carried out during the second mode of operation. applying, in a first mode of operation, which represents baseline operation for collecting dust particles, a first average current (I 1) between the at least one discharge electrode and the at least one collecting electrode, and switching from the first mode of operation to a second mode of operation in which a second average current (I 2) is applied between the at least one discharge electrode and the at least one collecting electrode, the second average current (I 2) being a factor of at least 3 higher than the first average current (I 1), to achieve a forced cleaning of the at least one collecting electrode, and wherein in the first and second modes of operation, intermittent energization of the electrodes (26, 28) is utilized according to a semi-pulse control scheme, where, in an alternating current input current, not all half-periods are used to feed current to the electrodes, and wherein a charging ratio varies between the fields, and in that a rapping of the at least one collecting electrode of the field being operated in the second mode of operation is carried out during the second mode of operation.
A cross-flow filtration device comprising: a retentate plate, a permeate plate, and a membrane sandwiched between the retentate plate and the permeate plate, wherein the retentate plate comprises at least one feed channel extending from a distribution manifold, and at least one drain channel extending from a collection manifold, wherein the feed channel is fluidly connected to the drain channel via through-holes extending from a first side of the retentate plate, from the feed channel, to an opposing second side of the retentate plate, and through-holes extending from the second side of the retentate plate to the first side of the retentate plate, into a drain channel, wherein one or more of the through-holes extending from the feed channel have a chamfered inlet. a retentate plate, a permeate plate, and a membrane sandwiched between the retentate plate and the permeate plate, wherein
A method performed by a wireless transmit and receive unit, WTRU, for providing feedback information on a processing structure, the method comprising: generating a set of input bits associated with the feedback information, wherein the feedback information comprises a plurality of acknowledgement/negative acknowledgement, ACK/NACK, bits corresponding to a plurality of component carriers; encoding the set of input bits to create an encoded set of output bits; scrambling the encoded set of output bits using a scrambling sequence to create a set of scrambled output bits, wherein the scrambling sequence is derived as a function of at least one of the following: an identity of the WTRU associated therewith or one or more cell identities of the WTRU's multicarrier configuration; modulating the set of scrambled output bits to create a block of modulated symbols; applying a spreading code to the block of modulated symbols, wherein the spreading code is selected based on a physical uplink control channel, PUCCH, resource index, wherein the PUCCH resource index is semi-statically configured by higher layer signaling; and transmitting the block spread modulated symbols corresponding to the ACK/NACK bits on a PUCCH. generating a set of input bits associated with the feedback information, wherein the feedback information comprises a plurality of acknowledgement/negative acknowledgement, ACK/NACK, bits corresponding to a plurality of component carriers; encoding the set of input bits to create an encoded set of output bits; scrambling the encoded set of output bits using a scrambling sequence to create a set of scrambled output bits, wherein the scrambling sequence is derived as a function of at least one of the following: an identity of the WTRU associated therewith or one or more cell identities of the WTRU's multicarrier configuration; modulating the set of scrambled output bits to create a block of modulated symbols; applying a spreading code to the block of modulated symbols, wherein the spreading code is selected based on a physical uplink control channel, PUCCH, resource index, wherein the PUCCH resource index is semi-statically configured by higher layer signaling; and transmitting the block spread modulated symbols corresponding to the ACK/NACK bits on a PUCCH.
A transmitter device coupled to a second device, the transmitter device comprising: a radio transmitter; one or more processors; and one or more data storage devices storing (i) a radio transmitter identifier, (ii) a radio transmitter address, and (iii) instructions that are operable, when executed by the one or more processors, to cause the one or more processors to perform operations comprising: obtaining device status information for the second device, the device status information including data indicating a current operating mode of the second device or a user configuration data indicating a user-specified configuration of the second device; accessing the stored radio transmitter identifier from the one or more data storage devices; generating a first advertisement that indicates the radio transmitter address and the radio transmitter identifier; generating a second advertisement that indicates the radio transmitter address and an encoding of the device status information for the second device; and broadcasting, using the radio transmitter, a series of advertisements that includes at least the first advertisement and the second advertisement. a radio transmitter; one or more processors; and one or more data storage devices storing (i) a radio transmitter identifier, (ii) a radio transmitter address, and (iii) instructions that are operable, when executed by the one or more processors, to cause the one or more processors to perform operations comprising: obtaining device status information for the second device, the device status information including data indicating a current operating mode of the second device or a user configuration data indicating a user-specified configuration of the second device; accessing the stored radio transmitter identifier from the one or more data storage devices; generating a first advertisement that indicates the radio transmitter address and the radio transmitter identifier; generating a second advertisement that indicates the radio transmitter address and an encoding of the device status information for the second device; and broadcasting, using the radio transmitter, a series of advertisements that includes at least the first advertisement and the second advertisement. accessing the stored radio transmitter identifier from the one or more data storage devices; generating a first advertisement that indicates the radio transmitter address and the radio transmitter identifier; generating a second advertisement that indicates the radio transmitter address and an encoding of the device status information for the second device; and broadcasting, using the radio transmitter, a series of advertisements that includes at least the first advertisement and the second advertisement.
Passenger conveyor device, in particular escalator or moving walkway, having conveyor elements which are connected to form an encircling belt and having a drive for the conveyor elements, wherein the drive comprises at least a motor, a transmission and a drive shaft which is operatively connected to the motor via the transmission, and wherein the conveyor elements which are connected to form an encircling belt are guided over the drive shaft and can be moved by means of the drive shaft, having a first bearer in which the conveyor elements which are connected to form an encircling belt are arranged in such a manner that they can be guided, and having a second bearer, in which the drive is arranged, characterized in that the passenger conveyor device comprises, between the first bearer and the second bearer, no mechanical connection by means of which a major part of the forces exerted, during operation, on the drive by the conveyor elements which are connected to form an encircling belt is transmitted to the first bearer.
Method for checking the integrity of reloadable functional units (HWAA1, HWAA2) which are reloaded, in the form of configuration files during a runtime of an electronic component designed as a programmable integrated circuit, into sub-regions (C1, C2) of a dynamically reconfigurable region of the electronic component, wherein the reloadable functional units (HWAA1, HWAA2) have predefined interfaces which match corresponding interfaces (IIF, OIF) of those sub-regions (C1, C2) of the dynamically reconfigurable region of the electronic component into which the reloadable functional units (HWAA1, HWAA2) can be loaded, characterized in that: - for each reloadable functional unit (HWAA1, HWAA2), a predetermined sub-region (Ct) of the dynamically reconfigurable region is preconfigured with a corresponding, associated, functionally identical twin functional unit (HWAAT), which has a basic structure of reloadable functional units (HWAA1, HWAA2) of the electronic component in the form of logic circuit functions; - in that a reloadable functional unit (HWAA1) is loaded into a predetermined sub-region (C1, C2) of the dynamically reconfigurable region at the runtime of the electronic component; - in that the loaded reloadable functional unit (HWAA1) and the associated twin functional unit (HWAAT) are supplied with identical input data and are executed in parallel; - in that the output data (O_HWAA1) of the loaded reloadable functional unit (HWAA1) and the output data (O_HWAAT) of the associated twin functional unit (HWAAT) are compared; - and in that the loaded reloadable functional unit (HWAA1) is enabled and the output data (O_HWAA1) of the loaded reloadable functional unit (HWAA1) is forwarded when a match is detected between the output data (O_HWAA1) of the reloadable functional unit (HWAA1) and the output data (O_HWAAT) of the associated twin functional unit (HWAAT). - for each reloadable functional unit (HWAA1, HWAA2), a predetermined sub-region (Ct) of the dynamically reconfigurable region is preconfigured with a corresponding, associated, functionally identical twin functional unit (HWAAT), which has a basic structure of reloadable functional units (HWAA1, HWAA2) of the electronic component in the form of logic circuit functions; - in that a reloadable functional unit (HWAA1) is loaded into a predetermined sub-region (C1, C2) of the dynamically reconfigurable region at the runtime of the electronic component; - in that the loaded reloadable functional unit (HWAA1) and the associated twin functional unit (HWAAT) are supplied with identical input data and are executed in parallel; - in that the output data (O_HWAA1) of the loaded reloadable functional unit (HWAA1) and the output data (O_HWAAT) of the associated twin functional unit (HWAAT) are compared; - and in that the loaded reloadable functional unit (HWAA1) is enabled and the output data (O_HWAA1) of the loaded reloadable functional unit (HWAA1) is forwarded when a match is detected between the output data (O_HWAA1) of the reloadable functional unit (HWAA1) and the output data (O_HWAAT) of the associated twin functional unit (HWAAT).
Cooling tank for the thermal treatment of a head of a rail, defining a longitudinal axis, comprising at least one longitudinal modulus provided with: - a frame comprising a central volume to be filled with a cooling fluid wherein the head of the rail to be treated can be immersed; - a delivery manifold for the inlet of the cooling fluid, placed in a lower area of said central volume; - two second volumes, lateral with respect to said central volume, for collecting the cooling fluid when it overflows from the top of said central volume; wherein said two second volumes are provided, along their longitudinal extension, with respective discharge pipes arranged so that each couple of corresponding discharge pipes is connected to a transversal pipe, provided below the bottom of the at least one modulus and on its turn connected to a blow-by circuit of the cooling fluid, wherein there are provided restraint elements in correspondence of and locked to the discharge pipes, above the second volumes, the restraint elements being adjustable in height and defining a through hole for the head of the rail, wherein at least one restraint element of each couple of corresponding restraint elements can rotate around a pin, and wherein the tank comprises a plurality of longitudinal moduli connected in succession to each other in correspondence to their respective ends. - a frame comprising a central volume to be filled with a cooling fluid wherein the head of the rail to be treated can be immersed; - a delivery manifold for the inlet of the cooling fluid, placed in a lower area of said central volume; - two second volumes, lateral with respect to said central volume, for collecting the cooling fluid when it overflows from the top of said central volume; wherein said two second volumes are provided, along their longitudinal extension, with respective discharge pipes arranged so that each couple of corresponding discharge pipes is connected to a transversal pipe, provided below the bottom of the at least one modulus and on its turn connected to a blow-by circuit of the cooling fluid, wherein there are provided restraint elements in correspondence of and locked to the discharge pipes, above the second volumes, the restraint elements being adjustable in height and defining a through hole for the head of the rail, wherein at least one restraint element of each couple of corresponding restraint elements can rotate around a pin, and wherein the tank comprises a plurality of longitudinal moduli connected in succession to each other in correspondence to their respective ends.
An electrophysiology catheter, comprising: an elongated catheter shaft having a first lumen; a balloon distal of the catheter shaft, the balloon having a distal end and a proximal end defining a longitudinal axis, the balloon including a membrane and a contact electrode supported on an outer surface of the membrane, the membrane defining an interior of the balloon; an irrigation tubing extending through the first lumen of the catheter shaft, the irrigation tubing having a second lumen, the irrigation tubing having a distal end terminating generally at the proximal end of the balloon; an elongated expander having a first portion extending through the second lumen of the irrigation tubing, and a second portion extending through the proximal end of the balloon and into the interior of the balloon, the expander having a distal end coupled to the distal end of the balloon, the expander being longitudinally movable relative to the catheter shaft to move the distal end of the balloon in changing a configuration of the balloon, wherein the expander has a section with a flexure slit, and wherein the flexure slit includes a spiral slit. an elongated catheter shaft having a first lumen; a balloon distal of the catheter shaft, the balloon having a distal end and a proximal end defining a longitudinal axis, the balloon including a membrane and a contact electrode supported on an outer surface of the membrane, the membrane defining an interior of the balloon; an irrigation tubing extending through the first lumen of the catheter shaft, the irrigation tubing having a second lumen, the irrigation tubing having a distal end terminating generally at the proximal end of the balloon; an elongated expander having a first portion extending through the second lumen of the irrigation tubing, and a second portion extending through the proximal end of the balloon and into the interior of the balloon, the expander having a distal end coupled to the distal end of the balloon, the expander being longitudinally movable relative to the catheter shaft to move the distal end of the balloon in changing a configuration of the balloon, wherein the expander has a section with a flexure slit, and wherein the flexure slit includes a spiral slit.
Method for insulating a coil winding of an active part of a rotating electric machine, wherein - the active part is impregnated with an insulating resin in a tub-like impregnation container by vacuum pressure impregnation and after the impregnation with the insulating resin the active part is held completely submerged in the insulating resin in the impregnation container that is filled with the insulating resin, - the impregnation container that is filled with the insulating resin together with the active part that is arranged in said impregnation container is subsequently introduced into a baking oven and the active part in the insulating resin is set in rotation about a longitudinal axis of the active part, - while the active part is rotating, the insulating resin is purged from the impregnation container and afterward the oven temperature is increased to a predetermined baking temperature and is maintained at the baking temperature for a predetermined baking period, - and the rotation of the active part is terminated after the expiration of the baking period. - the active part is impregnated with an insulating resin in a tub-like impregnation container by vacuum pressure impregnation and after the impregnation with the insulating resin the active part is held completely submerged in the insulating resin in the impregnation container that is filled with the insulating resin, - the impregnation container that is filled with the insulating resin together with the active part that is arranged in said impregnation container is subsequently introduced into a baking oven and the active part in the insulating resin is set in rotation about a longitudinal axis of the active part, - while the active part is rotating, the insulating resin is purged from the impregnation container and afterward the oven temperature is increased to a predetermined baking temperature and is maintained at the baking temperature for a predetermined baking period, - and the rotation of the active part is terminated after the expiration of the baking period.
A computer-implemented method to operate an autonomous driving vehicle, the method comprising: measuring and collecting a first set of driving statistics of an autonomous driving vehicle, ADV, at different points in time in response to various control commands while the ADV is driving; selecting one of a plurality of load calibration tables having a second set of driving statistics similar to the first set of driving statistics, wherein each of the load calibration tables is associated with a particular load; and determining a current load of the ADV based on the selected load calibration table, wherein the current load of the ADV is utilized as an adjustment factor for issuing subsequent control commands for autonomous driving of the ADV. measuring and collecting a first set of driving statistics of an autonomous driving vehicle, ADV, at different points in time in response to various control commands while the ADV is driving; selecting one of a plurality of load calibration tables having a second set of driving statistics similar to the first set of driving statistics, wherein each of the load calibration tables is associated with a particular load; and determining a current load of the ADV based on the selected load calibration table, wherein the current load of the ADV is utilized as an adjustment factor for issuing subsequent control commands for autonomous driving of the ADV.