mhurhangee/patent-ind-claim-en huggingface dataset:
A turbomachine blade comprising: a body having: a leading edge ; a trailing edge opposing the leading edge ; a suction side extending between the leading edge and the trailing edge ; a pressure side , opposing the suction side , extending between the leading edge and the trailing edge ; a root ; and a tip opposing the root ; and a trailing edge cooling circuit contained within the body , the trailing edge cooling circuit including: a first section extending from the root toward the tip along the pressure side ; a second section extending from the first section toward the trailing edge ; and a third section extending from the trailing edge along the suction side , wherein the trailing edge cooling circuit is configured to direct flow of a heat transfer fluid from the first section to the second section , and from the second section to the third section , without releasing the heat transfer fluid from the body at the trailing edge , characterized in the second section and third section collectively wrapping around an interior region within the trailing edge. a body having: a leading edge ; a trailing edge opposing the leading edge ; a suction side extending between the leading edge and the trailing edge ; a pressure side , opposing the suction side , extending between the leading edge and the trailing edge ; a root ; and a tip opposing the root ; and a trailing edge cooling circuit contained within the body , the trailing edge cooling circuit including: a first section extending from the root toward the tip along the pressure side ; a second section extending from the first section toward the trailing edge ; and a third section extending from the trailing edge along the suction side , wherein the trailing edge cooling circuit is configured to direct flow of a heat transfer fluid from the first section to the second section , and from the second section to the third section , without releasing the heat transfer fluid from the body at the trailing edge , characterized in the second section and third section collectively wrapping around an interior region within the trailing edge.
A motor control device for use in an electric power steering system configured to drive a motor having winding wires of two systems, the motor control device comprising two control systems each configured to control driving of the winding wires of a corresponding one of the two systems ; parameter output units each of which is corresponding to one of the two systems configured to output parameters (Th1, S1, Th2, S2, θm1, θm2), wherein each of the two control systems includes: a motor drive circuit configured to drive motor coils of a corresponding one of the two systems ; and a control calculation circuit configured to calculate an assist command value based on the parameters (Th1, S1, Th2, S2, θm1, θm2), wherein the motor drive circuit of each of the control systems is configured to drive the motor coils based on the assist command value, characterized in that , when the parameter output unit is functioning normally, the control calculation circuit is configured to calculate the assist command value based on a value obtained by averaging at least one kind of the parameters, out of the parameters (Th1, S1, Th2, S2, θm1, θm2) for the two control systems , and when the parameter output unit of the first control system is malfunctioning, the control calculation circuits of the two control systems share the parameter (Th1, S1, Th2, S2, θm1, θm2) output from the parameter output unit of a remaining second control system to calculate the assist command value (I ∗ 1, I ∗ 2), and the motor drive circuits of the two control systems drive the motor coils based on the assist command value. a motor drive circuit configured to drive motor coils of a corresponding one of the two systems ; and a control calculation circuit configured to calculate an assist command value based on the parameters (Th1, S1, Th2, S2, θm1, θm2), wherein the motor drive circuit of each of the control systems is configured to drive the motor coils based on the assist command value, characterized in that ,
Turbine engine blade comprising an aerodynamic surface extending in a first direction between a leading edge and a trailing edge and in a second direction , substantially perpendicular to said first direction, between a blade root and a blade tip , said aerodynamic surface being made of a fiber-reinforced organic matrix composite material, the blade further comprising a metallic structural reinforcement bonded by an adhesive joint to said leading edge whose shape it follows and having over its entire height, essentially defined along said second direction, a substantially V-shaped section with a base extended by two lateral flanks having a thinned profile at free ends directed toward said trailing edge, characterized in that said adhesive joint is locally supplemented under said free ends of said lateral flanks by an elastomeric polymer introduced in the form of solid particles into said adhesive joint and adhered to said aerodynamic surface and/or said free ends of said lateral flanks during a polymerization phase.
Apparatus for interrupting use of first communication resources of a communication network used by a first user equipment, UE, having a first priority level, which first communication resources are allocated to the first UE in precedence over other UEs having the same priority as or a lower priority level than the first UE , the apparatus comprising: an interrupt manager arranged to monitor reception of interrupt requests, each interrupt request being received from one of the other UEs , to establish an interrupt requirement in response to reception of one or more interrupt requests, wherein the interrupt requirement enables interruption of the first UE by co-ordinated or synchronised interrupt requests from the other UEs with equal or lower priority level, and to release the allocation of the first communication resources to the first UE in response to the interrupt requirement being established.
Compound of formula I wherein R 1 and R 2 are aryl groups, R 3 and R 4 are selected from the following list: ester group, or hydroxymethyl group, preferably wherein the ester group is a methyl ester group, for use in the treatment, therapy or diagnostic of neoplasias or infectious diseases. R 1 and R 2 are aryl groups, R 3 and R 4 are selected from the following list: ester group, or hydroxymethyl group, preferably wherein the ester group is a methyl ester group, for use in the treatment, therapy or diagnostic of neoplasias or infectious diseases.
A pigment composition for preparing matt coatings, characterized in that said pigment composition comprises titanium dioxide particles having a bimodal mass-related particle size distribution, in which the first particle fraction has a mean particle size (d50) of from 0.2 to 0.5 μm, preferably of from 0.2 to 0.4 μm, and in which the second particle fraction has a mean particle size (d50) within a range of from 2 to 200 μm, preferably from 2 to 100 μm, more preferably from 2 to 50 μm, and most preferably from 2 to 20 μm, and in which the first and second particle fractions have been subjected to a surface treatment.
A method for producing an extruded foam product, wherein an extrudate mixed with at least one blowing agent is guided through an extrusion tool , after exit from the extrusion tool, the extrudate is foamed by the blowing agent to form a foamed mass , characterized in that solidification of a surface and of further inside areas of the foamed mass within the temperature-control zone , which adjoins the extrusion tool, is prevented by temperature control of the foamed mass inside the temperature-control zone, wherein, within the temperature-control zone , the foamed mass is maintained in a state plastically deformable by the blowing agent, and, within the temperature-control zone , an adjustable contact pressure is applied to an outer surface of the foamed mass entirely over an entire circumference of the foamed mass by means of a pivotable, displaceable or rotatable surface.
A method for transmitting a signal by a user equipment, UE, in a wireless communication system supporting device-to-device, D2D, communication, the method comprising: reserving a first uplink resource on a first frequency band for transmission of a first signal; reserving a second uplink resource on a second frequency band for transmission of a second signal, wherein the second uplink resource is overlapped in a time domain with the first uplink resource; and transmitting the first signal on the overlapped resource to the eNode B, based on that the UE does not have capability of simultaneous transmission on the first frequency band and the second frequency band and the first signal is an uplink signal, wherein, based on that the second signal is a D2D synchronization signal and symbols for the D2D synchronization signal included in the second uplink resource do not directly overlap symbols for the first signal included in the first uplink resource in the time domain, the second signal is transmitted by the UE. reserving a first uplink resource on a first frequency band for transmission of a first signal; reserving a second uplink resource on a second frequency band for transmission of a second signal, wherein the second uplink resource is overlapped in a time domain with the first uplink resource; and transmitting the first signal on the overlapped resource to the eNode B, based on that the UE does not have capability of simultaneous transmission on the first frequency band and the second frequency band and the first signal is an uplink signal, wherein, based on that the second signal is a D2D synchronization signal and symbols for the D2D synchronization signal included in the second uplink resource do not directly overlap symbols for the first signal included in the first uplink resource in the time domain, the second signal is transmitted by the UE.
A compound, or a pharmaceutically acceptable salt or solvate thereof, selected from and
Air handling unit comprising a structural frame supporting a housing made of flat insulating panels and being divided in at least two modules enclosing air handling components, the modules being attached together by fastening systems characterized by furthermore comprising a first portion integral with a first module , attached to a second portion integral to a second module , wherein the first and second portion are formed by identical mechanical parts each comprising a conical protrusion and a conical recess , and wherein the first and second portions are respectively mounted on the first and second modules so that the conical protrusion of the first portion is received in the conical recess of the second portion , and that the conical recess of the first portion receives the conical protrusion of the second portion .
A latch mechanism comprising: a handle , a linkage , a hook including a hook body and a hook end coupled to the hook body , the hook body coupled to the linkage and to the handle along a first rotation axis (A, D), and a bushing coupled to the hook body , to the linkage , and to the handle along a second rotation axis (B, E), the bushing configured to allow mounting of the latch mechanism on a structure and to allow rotation of the latch mechanism relative to the structure about the second rotation axis (B, E), wherein the hook body includes an arm and a bridge coupled to the arm , the bridge and the arm at least partially defining an arcuate slot spaced apart from the first rotation axis (A, D) and extending at least partially around the first rotation axis (A, D), the bushing extends into the arcuate slot and is configured to move along the arcuate slot around the first rotation axis (A, D), the handle is rotatable about the first rotation axis (A, D) from a closed position wherein the handle extends along the hook and an opened position where the handle is spaced apart from the hook end , and the handle is configured to engage with the bushing to rotate the linkage and the hook about the second rotation axis (B, E). a handle , a linkage , a hook including a hook body and a hook end coupled to the hook body , the hook body coupled to the linkage and to the handle along a first rotation axis (A, D), and a bushing coupled to the hook body , to the linkage , and to the handle along a second rotation axis (B, E), the bushing configured to allow mounting of the latch mechanism on a structure and to allow rotation of the latch mechanism relative to the structure about the second rotation axis (B, E), wherein the hook body includes an arm and a bridge coupled to the arm , the bridge and the arm at least partially defining an arcuate slot spaced apart from the first rotation axis (A, D) and extending at least partially around the first rotation axis (A, D), the bushing extends into the arcuate slot and is configured to move along the arcuate slot around the first rotation axis (A, D), the handle is rotatable about the first rotation axis (A, D) from a closed position wherein the handle extends along the hook and an opened position where the handle is spaced apart from the hook end , and the handle is configured to engage with the bushing to rotate the linkage and the hook about the second rotation axis (B, E).
An assembled shower room, comprising: a shower tray , a top border , a bottom border fixedly arranged on the shower tray and a glass plate assembly arranged between the top border and the bottom border , wherein the glass plate assembly comprises a function plate , first fixed glass plates connected to two sides of the function plate , second fixed glass plates connected to the other sides of the first fixed glass plates , and a movable glass door ; the function plate , the first fixed glass plates , the second fixed glass plates and the movable glass door are connected end to end to form a shower area; and wherein the bottom border and the top border both comprise an engagement frame , a guide rail frame and side frames arranged on two sides of the engagement frame ; two ends of the guide rail frame are connected with ends of two side frames far away from the engagement frame ; the guide rail frame and the side frames are connected through connecting parts , and the connecting parts are fixed to the shower tray .
Venturi device for delivering oxygen or an air/oxygen mixture comprising: - a main body comprising an inner compartment and a venturi nozzle arranged in said inner compartment , - a rear member comprising an oxygen inlet for providing oxygen and at least one air inlet for providing air, and a mixing chamber for mixing therein oxygen and air provided by said oxygen inlet and said at least one air inlet , said rear member being mobile with respect to the main body between at least : o a closed position wherein the rear member provides oxygen to the venturi nozzle , and o an open position wherein the rear member provides an air/oxygen mixture to the venturi nozzle , said air/oxygen mixture being obtained in the mixing chamber , characterized in that the rear member is mobile with respect to the main body according to a helicoidal motion for allowing a user to manually select a desired open or closed position. - a main body comprising an inner compartment and a venturi nozzle arranged in said inner compartment , - a rear member comprising an oxygen inlet for providing oxygen and at least one air inlet for providing air, and a mixing chamber for mixing therein oxygen and air provided by said oxygen inlet and said at least one air inlet , said rear member being mobile with respect to the main body between at least : o a closed position wherein the rear member provides oxygen to the venturi nozzle , and o an open position wherein the rear member provides an air/oxygen mixture to the venturi nozzle , said air/oxygen mixture being obtained in the mixing chamber , o a closed position wherein the rear member provides oxygen to the venturi nozzle , and o an open position wherein the rear member provides an air/oxygen mixture to the venturi nozzle , said air/oxygen mixture being obtained in the mixing chamber ,
A method for determining the tension of a drive belt , wherein the drive belt is provided for transmission of a torque generated by a drive to a load , wherein the load concerns a door leaf of a single-leaf or double-leaf sliding door or pivotable sliding door system, comprising the following steps: a. moving the door leaf from a moving state into a rest state; b. recording the motor voltage during the execution of process step a. and providing a time-resolved motor voltage curve; c. determining the motor current from the recorded motor voltage or the motor voltage curve and providing a time-resolved motor current curve; d. evaluating the time-resolved motor current curve and determining the tension of the drive belt by means of selected curve features of the motor current curve, wherein the evaluation is made within the framework of process step d. by an algorithmic evaluation, which is based on selected curve features of the motor current curve, which characterize the motor current curve after reaching of the door leaf in the rest state. a. moving the door leaf from a moving state into a rest state; b. recording the motor voltage during the execution of process step a. and providing a time-resolved motor voltage curve; c. determining the motor current from the recorded motor voltage or the motor voltage curve and providing a time-resolved motor current curve; d. evaluating the time-resolved motor current curve and determining the tension of the drive belt by means of selected curve features of the motor current curve,
A powder bed additive manufacturing machine comprising a body ; a table which is located on the body and allows powders (T) to be laid thereon by means of a laying apparatus (S); a layer (L) which is created by sintering or fusing the powders (T) laid on the table ; a part (P) which is produced by depositing the layers (L) on top of each other using additive manufacturing method; and at least one heat source which is located on the body and applies heat treatment to the powders (T) laid on the table , characterized by a floor (Z) on which the body is located; at least one motor located between the floor (Z) and the table and enabling movement of the table ; a coating located on the table such that the coating is between the motor and the table , wherein said coating made of an insulating material to prevent transfer of heat of the table to the surroundings of the table , wherein said coating surrounds a surface of the table facing the floor (Z); and a paste which is located between the motor and the coating and allows the motor to adhere to the table .
A pneumatic braking control system , onboard a vehicle , the pneumatic braking control system comprising: - a pneumatic module provided with several fluid connectors , - a plurality of pipes having each an internal volume (V42), a first extremity of each pipe being fitted to respectively one fluid connector, characterized in that the plurality of pipes belongs to a unitary component producible by additive manufacturing and wherein the unitary component defines a single inner volume (V4), the single inner volume including the internal volume (V42) of each pipe . - a pneumatic module provided with several fluid connectors , - a plurality of pipes having each an internal volume (V42), a first extremity of each pipe being fitted to respectively one fluid connector,
A method for controlling temperature in a conditioned enclosure comprising: controlling temperature within the conditioned space according to a first setpoint, the first setpoint being from a preexisting schedule and representing a temperature suitable when one or more persons are occupying the conditioned space; receiving data reflecting one or more occupancy sensors adapted to detect occupancy within the conditioned enclosure; and automatically changing the setpoint temperature to a second setpoint upon expiration of a first predetermined time interval during which no occupancy has been detected, the second setpoint requiring substantially less energy to maintain than the first setpoint characterised by automatically changing the setpoint temperature to a third setpoint upon expiration of a second predetermined time interval during which no occupancy has been detected, wherein the second time interval is substantially longer than the first time interval; and modifying the first predetermined time interval based at least in part on manual settings that indicate occupancy and that are received after changing the setpoint temperature to the second setpoint. controlling temperature within the conditioned space according to a first setpoint, the first setpoint being from a preexisting schedule and representing a temperature suitable when one or more persons are occupying the conditioned space; receiving data reflecting one or more occupancy sensors adapted to detect occupancy within the conditioned enclosure; and automatically changing the setpoint temperature to a second setpoint upon expiration of a first predetermined time interval during which no occupancy has been detected, the second setpoint requiring substantially less energy to maintain than the first setpoint characterised by automatically changing the setpoint temperature to a third setpoint upon expiration of a second predetermined time interval during which no occupancy has been detected, wherein the second time interval is substantially longer than the first time interval; and modifying the first predetermined time interval based at least in part on manual settings that indicate occupancy and that are received after changing the setpoint temperature to the second setpoint.
A method to detect the presence or absence of an MREJ type xii methicillin-resistant Staphylococcus aureus (MRSA) strain characterized by SEQ ID NO: 20 comprising: contacting a sample to be analyzed for the presence or absence of said MREJ type xii MRSA strain characterized by SEQ ID NO: 20 to a first primer that hybridizes with an SCCmec element right extremity sequence of SEQ ID NO: 20 and a second primer that hybridizes with the complement of an orfX sequence of SEQ ID NO: 20; wherein said first and second primers are at least 10 nucleotides in length; generating an amplicon of said MREJ type xii MRSA strain; and detecting the absence or presence of said amplicon.