mhurhangee/patent-ind-claim-en huggingface dataset:
A hot runner nozzle comprising: a nozzle body; an annular outlet channel in the nozzle body; a source channel upstream of the annular outlet channel in the nozzle body; and a flow transition channel in the nozzle body interconnecting the source channel with a part-annular segment of the annular outlet channel, the flow transition channel widening in a downstream direction and having a non-uniform cross-sectional channel thickness, characterized in that the non-uniform cross-sectional channel thickness comprises a non-uniform longitudinal cross-sectional channel thickness progressively decreasing in the downstream direction, from an input thickness (T1) to an output thickness (T2). a nozzle body; an annular outlet channel in the nozzle body; a source channel upstream of the annular outlet channel in the nozzle body; and a flow transition channel in the nozzle body interconnecting the source channel with a part-annular segment of the annular outlet channel, the flow transition channel widening in a downstream direction and having a non-uniform cross-sectional channel thickness, characterized in that the non-uniform cross-sectional channel thickness comprises a non-uniform longitudinal cross-sectional channel thickness progressively decreasing in the downstream direction, from an input thickness (T1) to an output thickness (T2).
A refrigeration cycle apparatus including a refrigerant circuit sequentially connecting, with pipes, a compressor , a refrigerant-flow switching device , an air-side heat exchanger , a main expansion valve , and a water-side heat exchanger , and configured to allow refrigerant to circulate in the refrigerant circuit, the refrigeration cycle apparatus comprising: a refrigerant amount adjustment tank arranged in parallel with the main expansion valve , and configured to store the refrigerant; a first refrigerant flow control valve provided to a pipe connected to one end of the refrigerant amount adjustment tank , the pipe being branched from a pipe connecting the air-side heat exchanger and the main expansion valve , the first refrigerant flow control valve being configured to adjust a flow rate of the refrigerant flowing into and out of the refrigerant amount adjustment tank on a basis of an opening degree of the first refrigerant flow control valve ; and a second refrigerant flow control valve provided to a pipe connected to an other end of the refrigerant amount adjustment tank , the pipe being branched from a pipe connecting the main expansion valve and the water-side heat exchanger , the second refrigerant flow control valve being configured to adjust a flow rate of the refrigerant flowing into and out of the refrigerant amount adjustment tank on a basis of an opening degree of the second refrigerant flow control valve , the refrigerant amount adjustment tank being accommodated in a machine chamber accommodating at least the compressor and the main expansion valve that form the refrigerant circuit, the refrigerant amount adjustment tank being disposed below the air-side heat exchanger . a refrigerant amount adjustment tank arranged in parallel with the main expansion valve , and configured to store the refrigerant; a first refrigerant flow control valve provided to a pipe connected to one end of the refrigerant amount adjustment tank , the pipe being branched from a pipe connecting the air-side heat exchanger and the main expansion valve , the first refrigerant flow control valve being configured to adjust a flow rate of the refrigerant flowing into and out of the refrigerant amount adjustment tank on a basis of an opening degree of the first refrigerant flow control valve ; and a second refrigerant flow control valve provided to a pipe connected to an other end of the refrigerant amount adjustment tank , the pipe being branched from a pipe connecting the main expansion valve and the water-side heat exchanger , the second refrigerant flow control valve being configured to adjust a flow rate of the refrigerant flowing into and out of the refrigerant amount adjustment tank on a basis of an opening degree of the second refrigerant flow control valve , the refrigerant amount adjustment tank being accommodated in a machine chamber accommodating at least the compressor and the main expansion valve that form the refrigerant circuit, the refrigerant amount adjustment tank being disposed below the air-side heat exchanger .
Detector for detecting a product flow on a conveyor , comprising a base , to be fixed at a side of said conveyor , a pendulum , fixed to the base with a rotation to an axis parallel to a conveying direction of the conveyor , said pendulum rotating when products are pushed against it, a sensor , for detecting the position of the pendulum , the pendulum comprising at an end thereof a contact means having a flat plate shape, with a non metallic surface for contacting the products, the pendulum comprises a support structure and, mounted at an end of said support structure , an elongated plastic part for forming the contact means , characterized in that the plastic part has a flat plate shape and has a cavity for receiving the corresponding end of the support structure , the cavity and the corresponding end of the support structure having complementary elongated rectangular shapes extending parallel to the axis . a base , to be fixed at a side of said conveyor , a pendulum , fixed to the base with a rotation to an axis parallel to a conveying direction of the conveyor , said pendulum rotating when products are pushed against it, a sensor , for detecting the position of the pendulum , the pendulum comprising at an end thereof a contact means having a flat plate shape, with a non metallic surface for contacting the products, the pendulum comprises a support structure and, mounted at an end of said support structure , an elongated plastic part for forming the contact means , characterized in that the plastic part has a flat plate shape and has a cavity for receiving the corresponding end of the support structure , the cavity and the corresponding end of the support structure having complementary elongated rectangular shapes extending parallel to the axis .
A monoclonal antibody or a derivative thereof, wherein the monoclonal antibody or the derivative thereof specifically binds to human and cynomolgus CD38 antigens, and comprises a first variable region and a second variable region, wherein the first variable region is an antibody light chain variable region comprising complementarity-determining regions CDR1, CDR2, and CDR3 having amino acid sequences as set forth in SEQ ID NO: 3, SEQ ID NO: 4 and SEQ ID NO: 5, respectively; and wherein the second variable region is an antibody heavy chain variable region comprising complementarity-determining regions CDR1, CDR2, and CDR3 having amino acid sequences as set forth in SEQ ID NO: 8, SEQ ID NO: 9 and SEQ ID NO: 10, respectively. wherein the first variable region is an antibody light chain variable region comprising complementarity-determining regions CDR1, CDR2, and CDR3 having amino acid sequences as set forth in SEQ ID NO: 3, SEQ ID NO: 4 and SEQ ID NO: 5, respectively; and wherein the second variable region is an antibody heavy chain variable region comprising complementarity-determining regions CDR1, CDR2, and CDR3 having amino acid sequences as set forth in SEQ ID NO: 8, SEQ ID NO: 9 and SEQ ID NO: 10, respectively.
Device for controlling a displacement of a load, comprising: a first conduit , configured so as to be able to connect a first chamber (C1) of a cylinder (C) with a distributor (D); a second conduit , configured so as to be able to connect a second chamber (C2) of the cylinder (C) with the distributor (D); a first valve , arranged along the first conduit , which is configured so as to be able to allow the flow of fluid from the distributor (D) to the first chamber (C1) and to prevent the flow of fluid from the first chamber (C1) towards the distributor (D); a second valve , arranged along the second conduit , which is arranged to assume a closed configuration, in which it prevents the flow of fluid along the second conduit , and an opening configuration, in which it allows the flow of fluid along the second conduit , only if piloted by a pilot pressure higher than a predetermined value; a pilot conduit , which connects the second valve with the first conduit and configured so as to allow a pilot pressure to reach said second valve ; whereby said device further comprises a third conduit which connects a portion of said pilot conduit to a portion of said second conduit , characterised in that said portion of said second conduit is comprised between said second valve and said second chamber (C2) and by the fact that along said third conduit is positioned a third valve , which is configured so as to allow a flow of fluid from said first conduit to said second conduit and to prevent the opposite flow and a first orifice positioned along said third conduit between said third valve and said pilot conduit . a first conduit , configured so as to be able to connect a first chamber (C1) of a cylinder (C) with a distributor (D); a second conduit , configured so as to be able to connect a second chamber (C2) of the cylinder (C) with the distributor (D); a first valve , arranged along the first conduit , which is configured so as to be able to allow the flow of fluid from the distributor (D) to the first chamber (C1) and to prevent the flow of fluid from the first chamber (C1) towards the distributor (D); a second valve , arranged along the second conduit , which is arranged to assume a closed configuration, in which it prevents the flow of fluid along the second conduit , and an opening configuration, in which it allows the flow of fluid along the second conduit , only if piloted by a pilot pressure higher than a predetermined value; a pilot conduit , which connects the second valve with the first conduit and configured so as to allow a pilot pressure to reach said second valve ; whereby said device further comprises a third conduit which connects a portion of said pilot conduit to a portion of said second conduit , characterised in that said portion of said second conduit is comprised between said second valve and said second chamber (C2) and by the fact that along said third conduit is positioned a third valve , which is configured so as to allow a flow of fluid from said first conduit to said second conduit and to prevent the opposite flow and a first orifice positioned along said third conduit between said third valve and said pilot conduit .
A system for producing low water biomass-derived pyrolysis oil, comprising: i) a biomass dryer configured to receive a first portion of dehydrated non-condensable pyrolysis gases and solid biomass to form dried solid biomass; ii) a feed bin that receives the dried solid biomass; iii) a pyrolysis reactor comprising a reactor riser within which a heat transfer medium is disposed, wherein the pyrolysis reactor a) receives the dried solid biomass material from the feed bin and b) fluidizes the solid biomass material with a second portion of the dehydrated non-condensable pyrolysis gases to mix the heat transfer medium in the reactor riser with the biomass; iv) a first separator system , in flow communication with the pyrolysis reactor , that separates pyrolyzed materials into pyrolysis gases and solids; v) a reheater , in communication with the first separator system via a line and in communication with the pyrolysis reactor via conduit , wherein the reheater , which reheats the heat transfer media collected from the first separator system ; vi) a condenser , in communication with the pyrolysis reactor , that separates at least a portion of the pyrolysis gases into condensable pyrolysis gases and water-containing non-condensable pyrolysis gases; and vii) a dryer , disposed between the condenser and the pyrolysis reactor , that dehydrates at least a portion of the water-containing non-condensable pyrolysis gases to form the dehydrated non-condensable pyrolysis gases. i) a biomass dryer configured to receive a first portion of dehydrated non-condensable pyrolysis gases and solid biomass to form dried solid biomass; ii) a feed bin that receives the dried solid biomass; iii) a pyrolysis reactor comprising a reactor riser within which a heat transfer medium is disposed, wherein the pyrolysis reactor a) receives the dried solid biomass material from the feed bin and b) fluidizes the solid biomass material with a second portion of the dehydrated non-condensable pyrolysis gases to mix the heat transfer medium in the reactor riser with the biomass; iv) a first separator system , in flow communication with the pyrolysis reactor , that separates pyrolyzed materials into pyrolysis gases and solids; v) a reheater , in communication with the first separator system via a line and in communication with the pyrolysis reactor via conduit , wherein the reheater , which reheats the heat transfer media collected from the first separator system ; vi) a condenser , in communication with the pyrolysis reactor , that separates at least a portion of the pyrolysis gases into condensable pyrolysis gases and water-containing non-condensable pyrolysis gases; and vii) a dryer , disposed between the condenser and the pyrolysis reactor , that dehydrates at least a portion of the water-containing non-condensable pyrolysis gases to form the dehydrated non-condensable pyrolysis gases.
Solenoid valve device for a motor vehicle having a solenoid valve and an attachment device for attaching the solenoid valve to a motor vehicle body of the motor vehicle, wherein the attachment device has a support element designed as a support plate, onto which support element the solenoid valve is attached, as well as holding arms extending from the support element , by means of which holding arms the support element can be attached onto the motor vehicle body, wherein the holding arms between them mount the solenoid valve at least in part, are connected only indirectly to the solenoid valve via the support element and are designed in one piece with and made from the same material as the support element , characterised in that the holding arms are elastic in the pulling direction of an electromagnet of the solenoid valve , wherein the elasticity of the holding arms is provided by a sufficiently low strength of the holding arms.
A method that facilitates sending frames that include control resources in a wireless communication environment (100; 200), comprising: assigning indices to a set of control resources; restricting transmission of respective subsets of the control resources to respective, intended recipient access terminals (116;122; 204; 206; 800) based on the indices; characterized in that the control resources include shared and unshared link assignment blocks, LABs, further comprising: assigning indices to shared LABs in a frame; assigning indices to unshared LABs in the frame as a function of hashes of identifiers corresponding to the respective, intended recipient access terminals (116;122; 204; 206; 800); and transmitting the frame that includes the shared LABs and the unshared LABs ordered according to the assigned indices. assigning indices to a set of control resources; restricting transmission of respective subsets of the control resources to respective, intended recipient access terminals (116;122; 204; 206; 800) based on the indices; characterized in that the control resources include shared and unshared link assignment blocks, LABs, further comprising: assigning indices to shared LABs in a frame; assigning indices to unshared LABs in the frame as a function of hashes of identifiers corresponding to the respective, intended recipient access terminals (116;122; 204; 206; 800); and transmitting the frame that includes the shared LABs and the unshared LABs ordered according to the assigned indices.
An aircraft system for an aircraft , the aircraft system comprising a controller that is configured to: receive at least one signal during a landing procedure of the aircraft ; determine that the aircraft is at a predetermined stage in the landing procedure, on the basis of the at least one signal, wherein the predetermined stage is before a command to extend at least one landing gear of the aircraft is issued during the landing procedure; and cause initiation of at least a part of a procedure to interrogate an aircraft braking system , on the basis of the determination; characterized in that the controller is configured to cause initiation of a first part of the procedure to interrogate the aircraft braking system before receiving a command to extend the landing gear , and cause initiation of a second part of the procedure to interrogate the aircraft braking system after receiving a command to extend the landing gear . receive at least one signal during a landing procedure of the aircraft ; determine that the aircraft is at a predetermined stage in the landing procedure, on the basis of the at least one signal, wherein the predetermined stage is before a command to extend at least one landing gear of the aircraft is issued during the landing procedure; and cause initiation of at least a part of a procedure to interrogate an aircraft braking system , on the basis of the determination; characterized in that the controller is configured to cause initiation of a first part of the procedure to interrogate the aircraft braking system before receiving a command to extend the landing gear , and cause initiation of a second part of the procedure to interrogate the aircraft braking system after receiving a command to extend the landing gear .
A planetary wheel drive , comprising: a stationary spindle and a rotatable output housing ; said spindle includes an internal ring gear ; said housing includes an internal ring gear ; an input stage, an intermediate stage and an output stage; said input stage includes an input sun gear , and input planet gear , an input planet pin and an input planet carrier ; said input sun gear and said input planet gear reside within said spindle ; said input planet gear in meshing engagement with said internal ring gear of said stationary spindle ; said input planet carrier mounted on said input planet pin ; said input planet carrier being cantilevered and extends axially outside of said stationary spindle ; said input planet carrier drives said intermediate stage; said intermediate stage drives said output stage; and, said output stage includes an output carrier and said output carrier is fixed to said stationary spindle . a stationary spindle and a rotatable output housing ; said spindle includes an internal ring gear ; said housing includes an internal ring gear ; an input stage, an intermediate stage and an output stage; said input stage includes an input sun gear , and input planet gear , an input planet pin and an input planet carrier ; said input sun gear and said input planet gear reside within said spindle ; said input planet gear in meshing engagement with said internal ring gear of said stationary spindle ; said input planet carrier mounted on said input planet pin ; said input planet carrier being cantilevered and extends axially outside of said stationary spindle ; said input planet carrier drives said intermediate stage; said intermediate stage drives said output stage; and, said output stage includes an output carrier and said output carrier is fixed to said stationary spindle .
An imaging system comprising: an input unit adapted to receive 3D image data of a volume of an object to be imaged; a segmentation unit adapted to perform segmentation of the 3D image data received by the input unit , the segmentation being based upon an anatomical model and configured to determine at least one segmented surface within the 3D image data; a surface rendering unit , adapted to generate one or more surface values to be assigned to points on the at least one segmented surface, said values being based upon image data values of the 3D image data falling along projection vectors extended through said points, each projection vector having length and/or angle to the segmented surface determined at least partly on the basis of the anatomical model; and an image rendering unit adapted to generate one or more images of the object to be imaged based upon the surface values generated by the surface rendering unit . an input unit adapted to receive 3D image data of a volume of an object to be imaged; a segmentation unit adapted to perform segmentation of the 3D image data received by the input unit , the segmentation being based upon an anatomical model and configured to determine at least one segmented surface within the 3D image data; a surface rendering unit , adapted to generate one or more surface values to be assigned to points on the at least one segmented surface, said values being based upon image data values of the 3D image data falling along projection vectors extended through said points, each projection vector having length and/or angle to the segmented surface determined at least partly on the basis of the anatomical model; and an image rendering unit adapted to generate one or more images of the object to be imaged based upon the surface values generated by the surface rendering unit .
A fastening clamp that is adapted and configured for attachment without tools to a perforated undulating base of a sterilization sieve basket , wherein the fastening clamp has a main portion on which two rows of arms are arranged opposite each other with respect to a central axis , wherein each row of arms has a first retaining arm and a second retaining arm , on each of which a respective latching nose is formed, wherein the latching noses of the two retaining arms of each row of arms face toward each other, and wherein a first edge extends on the main portion between the two first retaining arms and a second edge extends between the two second retaining arms , characterized in that a cutout or recess is formed on each of the two edges.
A polymer electrolyte membrane comprising a sulfonate anion (-SO 3 - ), wherein the sulfonate anion forms an ionic bond with a bismuth cation, wherein a content of the bismuth cation is greater than or equal to 0.2 equivalents and less than or equal to 0.5 equivalents with respect to the sulfonate anion.