mhurhangee/patent-ind-claim-en huggingface dataset:
Process for the preparation of a compound of formula (I) wherein R 1 represents a hydrogen atom or a C 1-8 alkyl group; each R 2 , R 3 , R 4 , R 5 represent, when taken separately, independently from each other, a C 1-9 linear, branched or cyclic alkyl group optionally substituted by one to two C 1-5 alkyl groups and optionally comprising one or two functional groups selected amongst ether, ester, carbonyl, amine, amide or alcohol group; R 2 and R 3 , when taken together, represent a C 4-11 linear, branched or cyclic alkanediyl group optionally comprising one or two functional groups selected amongst ether, ester, carbonyl, amine, amide or alcohol group and/or R 3 and R 4 , when taken together, represent a C 2-9 linear, branched or cyclic alkanediyl group and/or R 4 and R 5 , when taken together, represent a C 4-9 linear, branched or cyclic alkanediyl group and/or R 2 and R 5 , when taken together, represent a C 2-9 linear, branched or cyclic alkanediyl group; and R 6 represents a C 1-3 linear or branched alkyl group; in the form of any one of its stereoisomers or a mixture thereof; said process comprising the step of reacting a corresponding compound of formula (II) wherein R 2 , R 3 , R 4 , R 5 and R 6 have the same meaning as in formula (I) with a compound of formula R 1 CHO, wherein R 1 has the same meaning as in formula (I). each R 2 , R 3 , R 4 , R 5 represent, when taken separately, independently from each other, a C 1-9 linear, branched or cyclic alkyl group optionally substituted by one to two C 1-5 alkyl groups and optionally comprising one or two functional groups selected amongst ether, ester, carbonyl, amine, amide or alcohol group; R 2 and R 3 , when taken together, represent a C 4-11 linear, branched or cyclic alkanediyl group optionally comprising one or two functional groups selected amongst ether, ester, carbonyl, amine, amide or alcohol group and/or R 3 and R 4 , when taken together, represent a C 2-9 linear, branched or cyclic alkanediyl group and/or R 4 and R 5 , when taken together, represent a C 4-9 linear, branched or cyclic alkanediyl group and/or R 2 and R 5 , when taken together, represent a C 2-9 linear, branched or cyclic alkanediyl group; and R 6 represents a C 1-3 linear or branched alkyl group;
A method for configuring a Near Field Communication, NFC, smart card hosted in an electronic device the method comprising: receiving a card selection by a user, the card being included in a card set corresponding to the user; determining at least one card which has no conflict with the selected card in the card set, the at least one card being different from the selected card; and adding the selected card into the NFC smart card, wherein each card in the NFC smart card is in an activated state, characterized in that the method further comprises: adding the at least one card into the NFC smart card; acquiring label information corresponding to the card set, wherein the label information represents at least one of a conflicting state or a non-conflicting state between every two cards in the card set, wherein the label information is generated by a server according to contactless parameters of the cards in the card set and is provided to the electronic device hosting the NFC smart card; and wherein the determining at least one card which has no conflict with the selected card in the card set is performed according to the label information. receiving a card selection by a user, the card being included in a card set corresponding to the user; determining at least one card which has no conflict with the selected card in the card set, the at least one card being different from the selected card; and adding the selected card into the NFC smart card, wherein each card in the NFC smart card is in an activated state, characterized in that the method further comprises: adding the at least one card into the NFC smart card; acquiring label information corresponding to the card set, wherein the label information represents at least one of a conflicting state or a non-conflicting state between every two cards in the card set, wherein the label information is generated by a server according to contactless parameters of the cards in the card set and is provided to the electronic device hosting the NFC smart card; and wherein the determining at least one card which has no conflict with the selected card in the card set is performed according to the label information. adding the at least one card into the NFC smart card; acquiring label information corresponding to the card set, wherein the label information represents at least one of a conflicting state or a non-conflicting state between every two cards in the card set, wherein the label information is generated by a server according to contactless parameters of the cards in the card set and is provided to the electronic device hosting the NFC smart card; and wherein the determining at least one card which has no conflict with the selected card in the card set is performed according to the label information.
A system for cardiopulmonary bypass, comprising: an oxygen source comprising a pressure regulator configured to regulate an oxygen pressure; an air source; a flow control configured to receive the oxygen source and the air source; a vaporizer in fluid communication with the flow control ; a sweep gas reservoir in fluid communication with the vaporizer ; an oxygenator fluidly connected to a pressure regulator of the sweep gas reservoir via a sweep gas inlet, wherein the sweep gas inlet is configured to have a subatmospheric pressure and the oxygenator is configured to oxygenate a blood; a vacuum regulator fluidly connected to the oxygenator via an sweep gas outlet, and configured to provide the subatmospheric pressure; and a flow restrictor fluidly connected to the sweep gas inlet, configured to allow for a pressure drop from the oxygen source to the oxygenator , and characterized in that the flow restrictor is disposed between the sweep gas reservoir and the oxygenator , and wherein the subatmospheric pressure is 40.53 kPa (0.4 atmospheres) to 81.06 kPa (0.8 atmospheres). an oxygen source comprising a pressure regulator configured to regulate an oxygen pressure; an air source; a flow control configured to receive the oxygen source and the air source; a vaporizer in fluid communication with the flow control ; a sweep gas reservoir in fluid communication with the vaporizer ; an oxygenator fluidly connected to a pressure regulator of the sweep gas reservoir via a sweep gas inlet, wherein the sweep gas inlet is configured to have a subatmospheric pressure and the oxygenator is configured to oxygenate a blood; a vacuum regulator fluidly connected to the oxygenator via an sweep gas outlet, and configured to provide the subatmospheric pressure; and a flow restrictor fluidly connected to the sweep gas inlet, configured to allow for a pressure drop from the oxygen source to the oxygenator , and characterized in that the flow restrictor is disposed between the sweep gas reservoir and the oxygenator , and wherein the subatmospheric pressure is 40.53 kPa (0.4 atmospheres) to 81.06 kPa (0.8 atmospheres).
Particulate carbon material from renewable raw materials, which has - a 14 C content corresponding to that of renewable raw materials of greater than 0.20 Bq/g of carbon and less than 0.45 Bq/g of carbon, - an STSA surface area of at least 5 m 2 /g and at most 200 m 2 /g, and - an oil absorption value (OAN) between 50 ml/100 g and 150 ml/100 g, and which is characterized by - a carbon content, based on the ash-free dry substance, between 60 wt.-% and 80 wt.-%. - a 14 C content corresponding to that of renewable raw materials of greater than 0.20 Bq/g of carbon and less than 0.45 Bq/g of carbon, - an STSA surface area of at least 5 m 2 /g and at most 200 m 2 /g, and - an oil absorption value (OAN) between 50 ml/100 g and 150 ml/100 g, - a carbon content, based on the ash-free dry substance, between 60 wt.-% and 80 wt.-%.
An apparatus (100; 400; 700; 900; 1000) for use with a chair , the apparatus comprising: a booster seat (105; 405; 705), the booster seat adapted to be positioned on a seat of the chair and to act as a seat for a user ; a table (110; 410; 710; 905; 1005), the table comprising: a tabletop (145; 415; 715); a frontal sidewall (150; 420; 720), the frontal sidewall oriented at an oblique angle between 30 degrees and 60 degrees relative to the tabletop; and a device mount (160; 725), the device mount adapted to attach an electronic display device to the tabletop; and mounting hardware adapted to removably mount the table to the booster seat such that the tabletop is tilted towards the user when the user is seated in the booster seat and the frontal sidewall is vertical a booster seat (105; 405; 705), the booster seat adapted to be positioned on a seat of the chair and to act as a seat for a user ; a table (110; 410; 710; 905; 1005), the table comprising: a tabletop (145; 415; 715); a frontal sidewall (150; 420; 720), the frontal sidewall oriented at an oblique angle between 30 degrees and 60 degrees relative to the tabletop; and a device mount (160; 725), the device mount adapted to attach an electronic display device to the tabletop; and a tabletop (145; 415; 715); a frontal sidewall (150; 420; 720), the frontal sidewall oriented at an oblique angle between 30 degrees and 60 degrees relative to the tabletop; and a device mount (160; 725), the device mount adapted to attach an electronic display device to the tabletop; and mounting hardware adapted to removably mount the table to the booster seat such that the tabletop is tilted towards the user when the user is seated in the booster seat and the frontal sidewall is vertical
A method for preparing an insulating product based on wool, comprising an aeration step inside a device, the device comprises a chamber and at least one means capable of generating a turbulent gaseous flow, during the aeration step, a stream of carrier gas is introduced into the chamber and a wool in the form of nodules or flakes is subjected to the turbulent flow of this carrier gas with entrainment in one sense in a direction A and in the opposite sense in a direction B that is the opposite to the direction A so that within the chamber there is at least in one plane perpendicular to the direction A in which the wool entrained in the direction A crosses the wool entrained in the direction B.
A composition for coating an overhead conductor comprising: a reflective agent which comprises rutile titanium dioxide (TiO 2 ); a polyorganosiloxane binder; and a superhydrophobic agent comprising either: (i) surface functionalised silica nanoparticles; (ii) a functional polysiloxane; or (iii) polymethylsilsesquioxane. a reflective agent which comprises rutile titanium dioxide (TiO 2 ); a polyorganosiloxane binder; and a superhydrophobic agent comprising either: (i) surface functionalised silica nanoparticles; (ii) a functional polysiloxane; or (iii) polymethylsilsesquioxane.
An apparatus for inspecting a tubular workpiece , comprising: a probe assembly having a transducer array positionable adjacent to an inner surface of the tubular workpiece and being configured to generate transmitted sound waves toward the inner surface and receive reflected sound waves ; a container for containing a tube end of the tubular workpiece , wherein the probe assembly is mounted to a bottom portion of the container ; a radial adjustment mechanism for adjusting the radial location of the probe assembly relative to the inner surface , comprising a rotatable thumb screw having a shaft coupled to the probe assembly , wherein the shaft extends through the bottom portion of the container and the thumb screw is exteriorly accessible on the container side wall ; and a rotation mechanism configured to rotate the probe assembly relative to the tubular workpiece in a manner such that the transducer array passes over the inner surface in a circumferential direction during transmission of the transmitted sound waves , wherein the bottom portion of the container is mounted on the rotation mechanism . a probe assembly having a transducer array positionable adjacent to an inner surface of the tubular workpiece and being configured to generate transmitted sound waves toward the inner surface and receive reflected sound waves ; a container for containing a tube end of the tubular workpiece , wherein the probe assembly is mounted to a bottom portion of the container ; a radial adjustment mechanism for adjusting the radial location of the probe assembly relative to the inner surface , comprising a rotatable thumb screw having a shaft coupled to the probe assembly , wherein the shaft extends through the bottom portion of the container and the thumb screw is exteriorly accessible on the container side wall ; and a rotation mechanism configured to rotate the probe assembly relative to the tubular workpiece in a manner such that the transducer array passes over the inner surface in a circumferential direction during transmission of the transmitted sound waves , wherein the bottom portion of the container is mounted on the rotation mechanism .
An inverter structure of an inverter comprising a smoothing capacitor and a plurality of power modules , wherein the smoothing capacitor includes a plurality of columnar unit capacitors each having electrodes (T) at both ends thereof, a plate-shaped one-end-side bus plate connected to the electrode at one end of each unit capacitor , and a plate-shaped other-end-side bus plate connected to the electrode at the other end of the unit capacitor , and the unit capacitors are arranged, with axes thereof parallel to each other, side by side in a direction along a plane perpendicular to the axes; the unit capacitors are arranged at positions equally distant from a predetermined center of the inverter , and a distance between each power module and at least the unit capacitor closest to the power module is set to be constant, the columnar unit capacitors are connected together by being held from both sides in the axial direction (t) by the one-end-side bus plate and the other-end-side bus plate , and the one-end-side bus plate and the other-end-side bus plate are circular in outer shape. the smoothing capacitor includes a plurality of columnar unit capacitors each having electrodes (T) at both ends thereof, a plate-shaped one-end-side bus plate connected to the electrode at one end of each unit capacitor , and a plate-shaped other-end-side bus plate connected to the electrode at the other end of the unit capacitor , and the unit capacitors are arranged, with axes thereof parallel to each other, side by side in a direction along a plane perpendicular to the axes; the unit capacitors are arranged at positions equally distant from a predetermined center of the inverter , and a distance between each power module and at least the unit capacitor closest to the power module is set to be constant, the columnar unit capacitors are connected together by being held from both sides in the axial direction (t) by the one-end-side bus plate and the other-end-side bus plate , and the one-end-side bus plate and the other-end-side bus plate are circular in outer shape.
A safety protection system application logic for a nuclear reactor comprising: one or more macro logics configured to perform a predetermined operation; a macro operation control unit configured to instruct the one or more macro logics to start the operation to cause the one or more macro logics to perform the operation; and an operation data storage area configured to store data, each of the one or more macro logics comprising: one or more operation logics configured to perform a predetermined floating-point operation; a floating-point operation control unit configured to instruct the one or more operation logics to start the floating-point operation to cause the one or more operation logics to perform the floating-point operation in accordance with an order of an operation algorithm; a selector configured to transfer data required for the floating-point operation to the one or more operation logics by control of the floating-point operation control unit ; and an output value processing unit configured to process output data received from the one or more operation logics and output the processed data, wherein each of the one or more operation logics is configured by combining a plurality of sub-functional modules. one or more macro logics configured to perform a predetermined operation; a macro operation control unit configured to instruct the one or more macro logics to start the operation to cause the one or more macro logics to perform the operation; and an operation data storage area configured to store data, each of the one or more macro logics comprising: one or more operation logics configured to perform a predetermined floating-point operation; a floating-point operation control unit configured to instruct the one or more operation logics to start the floating-point operation to cause the one or more operation logics to perform the floating-point operation in accordance with an order of an operation algorithm; a selector configured to transfer data required for the floating-point operation to the one or more operation logics by control of the floating-point operation control unit ; and an output value processing unit configured to process output data received from the one or more operation logics and output the processed data, wherein one or more operation logics configured to perform a predetermined floating-point operation; a floating-point operation control unit configured to instruct the one or more operation logics to start the floating-point operation to cause the one or more operation logics to perform the floating-point operation in accordance with an order of an operation algorithm; a selector configured to transfer data required for the floating-point operation to the one or more operation logics by control of the floating-point operation control unit ; and an output value processing unit configured to process output data received from the one or more operation logics and output the processed data, wherein each of the one or more operation logics is configured by combining a plurality of sub-functional modules.
Body of revolution comprising a hollow first body that is wound, at least in part, from fibre composite material and has a first and second end , and has an inner side facing the devised rotation axis (R) and an opposite outer side , whereby the first body tapers, at least in a cutting area adjacent to at least one of the first or second ends along a cutting surface , from the outer side to the inner side to the corresponding end , and a second body that is wound from a second fibre composite material made of a circumferential layer (U2) made of fibres (F2) with a fibre direction along a fibre angle (FW2) of more than 80 degrees with respect to the devised rotation axis (R), which are wound appropriately onto the first body such that the second body covers at least all cutting areas of the outer side of the first body at least when seen perpendicular to the rotation axis (R) without itself being cut to length by a cutting process, characterised in that the first body comprises an additional internal cutting surface that extends in the direction of the cutting surface , whereby the cutting surfaces hit each other at a contact edge , and whereby the internal cutting surface does not have the second body wound over it.
A connector device comprising: a male part ; a female part which engages the male part when those two parts (12; 50) are connected together, those two parts (12; 50) having respective passageways (14; 54) which are coaxial when those two parts (12; 50) are connected together; a collet which surrounds the male part and is coupled thereto, which collet has an external screwthread which engages an internal screwthread on the female part , so that relative rotation between those screwthreads in a given sense causes the female part to sealingly engage the male part , and which collet has a slot in it which extends longitudinally with respect to the axis of the screwthreads to enable the collet to be splayed, and which slot is open at both ends so that the collet is a split collet; and a wedge part which is located between the male part and the collet and is displaceable longitudinally with respect to the axis of the screwthreads to splay the collet thereby to lock the male and female parts (12; 50) in such a sealing engagement with one another; characterised in that the connector device further comprises a closed ring which surrounds that end of the collet which is further from the position at which the male and female parts (12; 50) sealingly engage one another, thereby to resist splaying of the collet at that end. a male part ; a female part which engages the male part when those two parts (12; 50) are connected together, those two parts (12; 50) having respective passageways (14; 54) which are coaxial when those two parts (12; 50) are connected together; a collet which surrounds the male part and is coupled thereto, which collet has an external screwthread which engages an internal screwthread on the female part , so that relative rotation between those screwthreads in a given sense causes the female part to sealingly engage the male part , and which collet has a slot in it which extends longitudinally with respect to the axis of the screwthreads to enable the collet to be splayed, and which slot is open at both ends so that the collet is a split collet; and a wedge part which is located between the male part and the collet and is displaceable longitudinally with respect to the axis of the screwthreads to splay the collet thereby to lock the male and female parts (12; 50) in such a sealing engagement with one another; characterised in that the connector device further comprises a closed ring which surrounds that end of the collet which is further from the position at which the male and female parts (12; 50) sealingly engage one another, thereby to resist splaying of the collet at that end.
A semiconductor processing apparatus , comprising: a wafer support assembly ; a plurality of temperature sensors integrated in the wafer support assembly and rotatable with the wafer support assembly for measuring temperatures of the wafer support assembly ; and a sensing control unit configured to receive first signals from the temperature sensors relating the temperatures of the wafer support assembly , determine locations of the temperature sensors based on the first signals, and convert the first signals relating the temperatures of the wafer support assembly and second signals relating to the locations of the temperature sensors into a wireless packet, wherein the sensing control unit includes a signal transmission device integrated in the wafer support assembly and rotatable with the wafer support assembly for wirelessly transmitting the wireless packet to an external control module . a wafer support assembly ; a plurality of temperature sensors integrated in the wafer support assembly and rotatable with the wafer support assembly for measuring temperatures of the wafer support assembly ; and a sensing control unit configured to receive first signals from the temperature sensors relating the temperatures of the wafer support assembly , determine locations of the temperature sensors based on the first signals, and convert the first signals relating the temperatures of the wafer support assembly and second signals relating to the locations of the temperature sensors into a wireless packet,