mhurhangee/patent-ind-claim-en huggingface dataset:
An intermediate transfer belt configured to receive a toner image formed by developing, with a toner, a latent image on an image bearing member, the intermediate transfer belt comprising: a base layer ; and an elastic layer laid on the base layer ; wherein the elastic layer comprises spherical resin particles and a layer formed of an elastic body , and has a concavo-convex pattern in a surface of the elastic layer, wherein the spherical resin particles are arranged in a plane direction in the surface of the elastic layer , characterized in that a b urial rate of the spherical resin particles is greater than 50% and less than 100%, and h max - h min ≤ 0.2 μm where h max denotes the maximum exposed height of the spherical resin particles and h min denotes the minimum exposed height of the spherical resin particles from a surface of the layer formed of the elastic body , wherein the intermediate transfer belt has glossiness of 35% or higher as determined based on reflected light at 85° on the surface of the intermediate transfer belt. a base layer ; and an elastic layer laid on the base layer ; wherein the elastic layer comprises spherical resin particles and a layer formed of an elastic body , and has a concavo-convex pattern in a surface of the elastic layer, wherein the spherical resin particles are arranged in a plane direction in the surface of the elastic layer , characterized in that a b urial rate of the spherical resin particles is greater than 50% and less than 100%, and h max - h min ≤ 0.2 μm where h max denotes the maximum exposed height of the spherical resin particles and h min denotes the minimum exposed height of the spherical resin particles from a surface of the layer formed of the elastic body , wherein the intermediate transfer belt has glossiness of 35% or higher as determined based on reflected light at 85° on the surface of the intermediate transfer belt.
A medical system comprising: - a memory storing machine executable instructions and an image segmentation algorithm , wherein the image segmentation algorithm is configured for outputting one or more predetermined anatomical regions within initial magnetic resonance imaging data descriptive of a predetermined field of view of a subject ; - a computational system , wherein execution of the machine executable instructions causes the computational system to: - receive the initial magnetic resonance imaging data ; - receive an image segmentation comprising the one or more anatomical regions within the magnetic resonance imaging data in response to inputting the initial magnetic resonance imaging data into the image segmentation algorithm; - select at least one of the one or more anatomical regions as a selected image portion using a predetermined criterion; and characterized by the execution of the machine executable instructions further causing the computational system to - reduce image intensity within the selected image portion so that anatomical structures within the selected image portion are still visible, to provide intensity corrected magnetic resonance imaging data. - a memory storing machine executable instructions and an image segmentation algorithm , wherein the image segmentation algorithm is configured for outputting one or more predetermined anatomical regions within initial magnetic resonance imaging data descriptive of a predetermined field of view of a subject ; - a computational system , wherein execution of the machine executable instructions causes the computational system to: - receive the initial magnetic resonance imaging data ; - receive an image segmentation comprising the one or more anatomical regions within the magnetic resonance imaging data in response to inputting the initial magnetic resonance imaging data into the image segmentation algorithm; - select at least one of the one or more anatomical regions as a selected image portion using a predetermined criterion; and characterized by the execution of the machine executable instructions further causing the computational system to - reduce image intensity within the selected image portion so that anatomical structures within the selected image portion are still visible, to provide intensity corrected magnetic resonance imaging data. - receive the initial magnetic resonance imaging data ; - receive an image segmentation comprising the one or more anatomical regions within the magnetic resonance imaging data in response to inputting the initial magnetic resonance imaging data into the image segmentation algorithm; - select at least one of the one or more anatomical regions as a selected image portion using a predetermined criterion; and characterized by the execution of the machine executable instructions further causing the computational system to - reduce image intensity within the selected image portion so that anatomical structures within the selected image portion are still visible, to provide intensity corrected magnetic resonance imaging data.
A centrifugal compression system, comprising: an inlet configured to receive a fluid stream from a well head or separator; an outlet; a liquid injection port configured to introduce a liquid into the fluid stream and create a multiphase fluid; a fluid treatment device , the fluid treatment device being a slug suppressor, an atomizing device, or a combination thereof; a centrifugal compressor configured to compress the multiphase fluid to create a multiphase discharge stream, wherein the compression system is configured to measure a discharge parameter of the multiphase discharge stream; a controller configured to control the quantity of liquid introduced into the compression system via the liquid injection port such that when a measured discharge parameter corresponding to a pressure ratio of the centrifugal compressor exceeds a first predetermined point the controller increases the pressure ratio by increasing the quantity of liquid introduced into the compression system corresponding to an increase of the pressure ratio above and/or on the left side of a surge line without causing surge or pulsate backflow through the centrifugal compressor; and a recycle line to recycle a portion of the compressed multiphase fluid to the centrifugal compressor. an inlet configured to receive a fluid stream from a well head or separator; an outlet; a liquid injection port configured to introduce a liquid into the fluid stream and create a multiphase fluid; a fluid treatment device , the fluid treatment device being a slug suppressor, an atomizing device, or a combination thereof; a centrifugal compressor configured to compress the multiphase fluid to create a multiphase discharge stream, wherein the compression system is configured to measure a discharge parameter of the multiphase discharge stream; a controller configured to control the quantity of liquid introduced into the compression system via the liquid injection port such that when a measured discharge parameter corresponding to a pressure ratio of the centrifugal compressor exceeds a first predetermined point the controller increases the pressure ratio by increasing the quantity of liquid introduced into the compression system corresponding to an increase of the pressure ratio above and/or on the left side of a surge line without causing surge or pulsate backflow through the centrifugal compressor; and a recycle line to recycle a portion of the compressed multiphase fluid to the centrifugal compressor.
Fanless cooling system for electronic modular systems for use in vehicles, in particular in rail vehicles, - with a rack for accommodating at least one module , in particular a processor module, - with a heat transport body , which can be coupled to a part of the module in a heat-transferring manner, - wherein the rack has at least one heat distribution body (26; 39), to which the heat transport body can be fastened in a heat-transferring manner, when the module , to the part of which the heat transport body is coupled, is accommodated in the rack , - and with at least one heat pipe connected to the heat distribution body in a heat-transferring manner, characterised in that the rack has two side parts , which stand perpendicular to a bottom side and a top side of the rack and run in the rack transverse direction , and the bottom side and the top side of the rack are at least partially permeable to air. - with a rack for accommodating at least one module , in particular a processor module, - with a heat transport body , which can be coupled to a part of the module in a heat-transferring manner, - wherein the rack has at least one heat distribution body (26; 39), to which the heat transport body can be fastened in a heat-transferring manner, when the module , to the part of which the heat transport body is coupled, is accommodated in the rack , - and with at least one heat pipe connected to the heat distribution body in a heat-transferring manner, the rack has two side parts , which stand perpendicular to a bottom side and a top side of the rack and run in the rack transverse direction , and the bottom side and the top side of the rack are at least partially permeable to air.
A gas diffusion electrode comprising microporous layers on at least one side of an electrically conductive porous substrate , said microporous layers having at least a first microporous layer in contact with said electrically conductive porous substrate , and a second microporous layer positioned as the outermost layer of said microporous layers , characterized in that said second microporous layer contains an electrically conductive material having a linear portion with an aspect ratio of 30 or more and 5000 or less, and has a thickness of 0.1 or more and 10 μm or less; and said first microporous layer contains an electrically conductive microparticle with a particle size of 3 nm or more and 500 nm or less, and has a thickness of 10 μm or more, wherein the particle size is determined by the maximum diameter of the particle using a transmission electron microscope. said microporous layers having at least a first microporous layer in contact with said electrically conductive porous substrate , and a second microporous layer positioned as the outermost layer of said microporous layers , characterized in that said second microporous layer contains an electrically conductive material having a linear portion with an aspect ratio of 30 or more and 5000 or less, and has a thickness of 0.1 or more and 10 μm or less; and said first microporous layer contains an electrically conductive microparticle with a particle size of 3 nm or more and 500 nm or less, and has a thickness of 10 μm or more, wherein the particle size is determined by the maximum diameter of the particle using a transmission electron microscope.
A stopper configured to be positioned inside a barrel of an injection device for injecting at least one composition, said stopper comprising: - a gasket comprising a proximal end , a distal end , a lateral wall , and a through hole extending from the proximal end to the distal end, - an insert inserted in the through hole , wherein the stopper is adapted to deform between: - a closed configuration wherein the gasket cooperates with the insert to hermetically close the through hole , for preventing flow of the composition between the proximal end and the distal end of the gasket , and - an open configuration wherein the gasket cooperates with the insert to open a fluidic pathway in the through hole between the proximal end and the distal end of the gasket for allowing flow of the composition wherein: - the proximal end of the gasket comprises a membrane , - the insert comprises an inner chamber having a distal opening and at least one lateral opening , - the gasket comprises a cavity extending around each lateral opening of the insert, and wherein: - in the closed configuration, the membrane is configured to cooperate with the insert to close the cavity , for preventing flow of the composition between the proximal end and the distal end of the gasket, and - in the open configuration, the membrane is configured to deform toward the cavity under a positive difference of pressure between the composition situated proximally from the proximal end of the gasket and a fluid present distally from the distal end of the gasket exerted onto said membrane to open the fluidic pathway between the proximal end of the gasket, the cavity , the inner chamber and the distal end of the gasket . - a gasket comprising a proximal end , a distal end , a lateral wall , and a through hole extending from the proximal end to the distal end, - an insert inserted in the through hole , - a closed configuration wherein the gasket cooperates with the insert to hermetically close the through hole , for preventing flow of the composition between the proximal end and the distal end of the gasket , and - an open configuration wherein the gasket cooperates with the insert to open a fluidic pathway in the through hole between the proximal end and the distal end of the gasket for allowing flow of the composition - the proximal end of the gasket comprises a membrane , - the insert comprises an inner chamber having a distal opening and at least one lateral opening , - the gasket comprises a cavity extending around each lateral opening of the insert, - in the closed configuration, the membrane is configured to cooperate with the insert to close the cavity , for preventing flow of the composition between the proximal end and the distal end of the gasket, and - in the open configuration, the membrane is configured to deform toward the cavity under a positive difference of pressure between the composition situated proximally from the proximal end of the gasket and a fluid present distally from the distal end of the gasket exerted onto said membrane to open the fluidic pathway between the proximal end of the gasket, the cavity , the inner chamber and the distal end of the gasket .
A gas replacement system configured to fill a container with a content fluid, seal the container , and replace contents of the container with a gas, comprising: a filling machine configured to fill the container with the content fluid; a sealing machine configured to seal the container transferred from the filling machine ; a chamber configured to cover the filling machine and the sealing machine , and to contain an ambient gas containing a replacement gas from a supply source ; and a liquid discharge mechanism (103, TW) configured to discharge a liquid in the container , the container having been carried into the chamber while containing the liquid, out of the container in the chamber , a gassing system configured to introduce the replacement gas from the supply source into the container , the liquid in the container having been replaced with the ambient gas in the chamber along with the discharge of the liquid, to replace the gas in the container with the replacement gas, wherein the gassing system comprises at least a blowing nozzle which is configured to blow carbon dioxide as the replacement gas supplied from a tank as the supply source into an opening of the container ; characterized by a valve configured to open/close a flow path of the blowing nozzle, and the blowing nozzle and the valve are provided integrally with a filling nozzle of the filling machine . a filling machine configured to fill the container with the content fluid; a sealing machine configured to seal the container transferred from the filling machine ; a chamber configured to cover the filling machine and the sealing machine , and to contain an ambient gas containing a replacement gas from a supply source ; and a liquid discharge mechanism (103, TW) configured to discharge a liquid in the container , the container having been carried into the chamber while containing the liquid, out of the container in the chamber , a gassing system configured to introduce the replacement gas from the supply source into the container , the liquid in the container having been replaced with the ambient gas in the chamber along with the discharge of the liquid, to replace the gas in the container with the replacement gas, wherein the gassing system comprises at least a blowing nozzle which is configured to blow carbon dioxide as the replacement gas supplied from a tank as the supply source into an opening of the container ; characterized by a valve configured to open/close a flow path of the blowing nozzle, and the blowing nozzle and the valve are provided integrally with a filling nozzle of the filling machine .
A method for manufacturing a mineral wool board comprising the following steps: a1) Providing mineral wool fibers with a fiber length of 50 to 800 μm; a2) providing a binder comprising a mixture of liquid resin and mineral fillers comprising caoline, quartz flour, limestone and/or aluminium oxide with an average grain size d 50 of 300 nm to 100 μm; and thereafter in the order indicated: b) applying ultrasound to the binder to distribute the fillers in the liquid resin; c) gluing the fibers with the binder, and d) pressing the glued fibers using heat and pressure to a density of more than 500 kg/m 3 . a1) Providing mineral wool fibers with a fiber length of 50 to 800 μm; a2) providing a binder comprising a mixture of liquid resin and mineral fillers comprising caoline, quartz flour, limestone and/or aluminium oxide with an average grain size d 50 of 300 nm to 100 μm; and thereafter in the order indicated: b) applying ultrasound to the binder to distribute the fillers in the liquid resin; c) gluing the fibers with the binder, and d) pressing the glued fibers using heat and pressure to a density of more than 500 kg/m 3 . b) applying ultrasound to the binder to distribute the fillers in the liquid resin; c) gluing the fibers with the binder, and d) pressing the glued fibers using heat and pressure to a density of more than 500 kg/m 3 .
A device for enabling run-flat properties of a vehicle wheel , wherein the device comprises a first support element configured to be attached to the vehicle wheel on the vehicle side, and a second support element configured to be attached to the vehicle wheel on the outside facing away from the vehicle, wherein the support elements are configured such that, in a mounting position provided on the vehicle wheel , they exert sideward pressure on the side walls of a tire of the vehicle in such a manner that a tread of the tire is pushed radially outwards and that the tyre forms a tread body of the vehicle wheel despite a lack of air pressure and provides a sufficient running surface, and wherein the first support element and the second support element each has clamping arms for fastening the support elements to a rim of the vehicle wheel , characterized in that the clamping arms are configured and arranged in the provided mounting position in such a manner that they engage between a tire bead of the tire and a rim base of the rim so that they lift the tire bead off the rim base . the device comprises a first support element configured to be attached to the vehicle wheel on the vehicle side, and a second support element configured to be attached to the vehicle wheel on the outside facing away from the vehicle, wherein the support elements are configured such that, in a mounting position provided on the vehicle wheel , they exert sideward pressure on the side walls of a tire of the vehicle in such a manner that a tread of the tire is pushed radially outwards and that the tyre forms a tread body of the vehicle wheel despite a lack of air pressure and provides a sufficient running surface, and wherein the first support element and the second support element each has clamping arms for fastening the support elements to a rim of the vehicle wheel , characterized in that the clamping arms are configured and arranged in the provided mounting position in such a manner that they engage between a tire bead of the tire and a rim base of the rim so that they lift the tire bead off the rim base .
An inkjet printer comprising: an endless transport belt for transporting a medium to be printed; at least one roller for driving the transport belt and at least one additional roller for driving and/or suspending the transport belt ; a detection system configured to detect a deformation of the transport belt including at least an in-plane bending deformation of at least a stretch of the transport belt and to generate at least one deformation signal indicating the detected deformation; and characterized by an actuator assembly configured to change a position and/or orientation of at least one of the rollers of the inkjet printer ; and a controller configured to control the actuator assembly based on the at least one deformation signal . an endless transport belt for transporting a medium to be printed; at least one roller for driving the transport belt and at least one additional roller for driving and/or suspending the transport belt ; a detection system configured to detect a deformation of the transport belt including at least an in-plane bending deformation of at least a stretch of the transport belt and to generate at least one deformation signal indicating the detected deformation; and characterized by an actuator assembly configured to change a position and/or orientation of at least one of the rollers of the inkjet printer ; and a controller configured to control the actuator assembly based on the at least one deformation signal .
A humanized anti-5T4 antibody comprising heavy chain (HC) and light chain (LC) variable region (VR) complementarity determining regions (CDRs) selected from the group consisting of: a. CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:1 and CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:2; b. CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:5 and CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:6; and c. CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:11 and CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:12; where the CDRs are underlined in the SEQ ID NOs and wherein the antibody comprises at least one engineered cysteine at one or more positions of said antibody selected from heavy chain framework region positions 40, 41 and 89 according to Kabat numbering and light chain framework region positions 40 and 41 according to Kabat numbering. a. CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:1 and CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:2; b. CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:5 and CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:6; and c. CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:11 and CDR1, CDR2 and CDR3 amino acid sequences of SEQ ID NO:12; where the CDRs are underlined in the SEQ ID NOs and wherein the antibody comprises at least one engineered cysteine at one or more positions of said antibody selected from heavy chain framework region positions 40, 41 and 89 according to Kabat numbering and light chain framework region positions 40 and 41 according to Kabat numbering.
Device for locking an articulated joint in a longitudinal direction between a plate of a floor duster mop and handle of the floor duster mop characterised by , a handle-holding element ; a base element ; and a sled element ; wherein the base element comprises a lower part for attaching to the plate making a transversal articulated connection, a central part for a longitudinal articulated connection with the handle-holding element and an upper part configured as a female element ; wherein the handle-holding element is bonded to the handle and is hinged with the base element joined to the plate ; wherein the handle-holding element comprises a fork-shaped part whose arms in the end tract are fitted with housings for a hinge pin for the articulation with the base element ; wherein the sled element is inserted into the fork-shaped part of the handle-holder element; and wherein the lower part of the sled element is configured as a male element capable of coupling the male element with the female element of the base element , thereby locking the articulation in the longitudinal direction between the handle and the plate .