mhurhangee/patent-ind-claim-en huggingface dataset:
A drawing bench of a drawing machine , comprising: - a drawing carriage which is translatable along a predetermined direction (X) on a base structure , - a rack-pinion system adapted to translate the drawing carriage along said predetermined direction (X) on the base structure ; wherein the rack-pinion system comprises at least two motors , at least two pinions , and one or more racks ; wherein each motor is adapted to drive a respective pinion ; the drawing bench being characterized in that the rotation axis (R) of each pinion is substantially orthogonal to a translation plane (T) of the drawing carriage on the base structure . - a drawing carriage which is translatable along a predetermined direction (X) on a base structure , - a rack-pinion system adapted to translate the drawing carriage along said predetermined direction (X) on the base structure ; wherein the rack-pinion system comprises at least two motors , at least two pinions , and one or more racks ; at least two motors , at least two pinions , and one or more racks ; wherein each motor is adapted to drive a respective pinion ; the drawing bench being characterized in that the rotation axis (R) of each pinion is substantially orthogonal to a translation plane (T) of the drawing carriage on the base structure .
A fuel cell including two bipolar plates and an electrode membrane assembly sandwiched between these bipolar plates, each bipolar plate including a peripheral frame and a central area for distribution of the reagents, the electrode membrane assembly comprising an active zone having a layer of anode or cathode diffusion which is the site of the anode and cathode reactions, and a peripheral frame , a seal being affixed between a bipolar plate and the electrode membrane assembly , said seal being in the form of a membrane, the profile of which corresponds to the peripheral frame of the bipolar plate and comprising a central opening coinciding with the central area for distribution of the reagents of the bipolar plate , characterized in that the seal comprises a rebate at the level of the inner framing rim of the central opening on which the anode or cathode diffusion layer at least partly bears on assembling of the cell whilst also bearing on the bipolar plate at the level of its central zone ; and in that this seal also comprises a front face on which the peripheral frame of the assembly bears.
A turbulent combustion incinerator comprising a main combustion chamber and a secondary combustion chamber for turbulent combustion of fuel, said turbulent combustion incinerator further comprises a first heat collecting dome and a second heat collecting dome , said secondary combustion chamber comprising a first division and a second division and, said main combustion chamber in flow communication with the first division being separated by the first heat collecting dome and said first division in flow communication with said second division being separated by the second heat collecting dome .
Method for the secure provision of a device-specific cryptographic key (IDK) from a system-wide key (SK) for a device, comprising the following steps: - forming a plurality of items of device-specific system identification information (ID1, ID2) during at least two subsequent starting phases, wherein the items of device-specific system identification information (ID1, ID2) comprise a plurality of parts, which are identified and set in steps; - sealing the items of device-specific system identification information (ID1, ID2) by way of a respective, at most once-possible, writing of the respective item of device-specific system identification information (ID1, ID2) during the at least two starting phases; - identifying the system-wide key (SK); - deriving the device-specific cryptographic key (IDK) from the system-wide key (SK) using a final item of overall-device-specific system identification information (ID); wherein at least two items of device-specific system identification information (ID1, ID2) are formed and sealed during the at least two starting phases, wherein, in the at least two starting phases, in each case one of the items of system identification information (ID1, ID2) is sealed, and the final item of overall-device-specific system identification information (ID) is formed as a parameter from the items of system identification information (ID1, ID2). - forming a plurality of items of device-specific system identification information (ID1, ID2) during at least two subsequent starting phases, wherein the items of device-specific system identification information (ID1, ID2) comprise a plurality of parts, which are identified and set in steps; - sealing the items of device-specific system identification information (ID1, ID2) by way of a respective, at most once-possible, writing of the respective item of device-specific system identification information (ID1, ID2) during the at least two starting phases; - identifying the system-wide key (SK); - deriving the device-specific cryptographic key (IDK) from the system-wide key (SK) using a final item of overall-device-specific system identification information (ID);
A method of customising a surface of an element of a writing instrument or a surface of an element for a writing instrument by applying a customised design to the surface of the element of the writing instrument or to the surface of the element for the writing instrument by means of 3D printing, comprising the following steps: a) providing a writing instrument or accessory or accessory part for a writing instrument manufactured by means of an automatic manufacturing process, b) customising of the design and/or at least partial selection of the design from one or more templates by means of an input system , c) converting the customised and/or at least partially from one or more templates selected design into a vector graphic or a 3D model, d) transferring the vector graphic or 3D model to a 3D printer , e) inserting and positioning the element within a printing space of the 3D printer by means of a positioning and rotating device , f) printing the customised and/or at least partially selected design onto the surface of the element , wherein a print head of the 3D printer is moved at least along a first axis of movement in the x- and/or -x-direction and the element is rotated about an axis of rotation (D) of the element as a function of the course of the design by means of the positioning and rotating device in such a way that the print head is always aligned perpendicular to a tangential plane (T) of the area to be printed or of the point of the surface of the element to be printed. a) providing a writing instrument or accessory or accessory part for a writing instrument manufactured by means of an automatic manufacturing process, b) customising of the design and/or at least partial selection of the design from one or more templates by means of an input system , c) converting the customised and/or at least partially from one or more templates selected design into a vector graphic or a 3D model, d) transferring the vector graphic or 3D model to a 3D printer , e) inserting and positioning the element within a printing space of the 3D printer by means of a positioning and rotating device , f) printing the customised and/or at least partially selected design onto the surface of the element , wherein a print head of the 3D printer is moved at least along a first axis of movement in the x- and/or -x-direction and the element is rotated about an axis of rotation (D) of the element as a function of the course of the design by means of the positioning and rotating device in such a way that the print head is always aligned perpendicular to a tangential plane (T) of the area to be printed or of the point of the surface of the element to be printed.
An automated external defibrillator (AED) , comprising: a first electrode pad ; a second electrode pad , the first and/or second electrode pad configured to obtain at least a portion of an electrocardiogram (ECG) signal from an individual; and a controller in communication with the first electrode pad and the second electrode pad, the controller configured to: (i) receive, during an active CPR protocol, a signal indicative of motion or lack of motion of the individual; (ii) analyze the received signal to determine whether the individual is undergoing motion; (iii) provide a direction to begin or continue chest compressions if the controller determines from the received signal that the individual is not undergoing motion; (iv) analyze, by the controller, a received ECG signal to determine whether the individual could benefit from a shock delivered from the AED; (v) interrupt the active CPR protocol, if the individual is not undergoing motion and if the individual could benefit from a shock delivered from the AED; and (vi) deliver, via the first and/or second electrode pad, a shock to the individual, or request a CPR-free heart rhythm analysis. a first electrode pad ; a second electrode pad , the first and/or second electrode pad configured to obtain at least a portion of an electrocardiogram (ECG) signal from an individual; and a controller in communication with the first electrode pad and the second electrode pad, the controller configured to: (i) receive, during an active CPR protocol, a signal indicative of motion or lack of motion of the individual; (ii) analyze the received signal to determine whether the individual is undergoing motion; (iii) provide a direction to begin or continue chest compressions if the controller determines from the received signal that the individual is not undergoing motion; (iv) analyze, by the controller, a received ECG signal to determine whether the individual could benefit from a shock delivered from the AED; (v) interrupt the active CPR protocol, if the individual is not undergoing motion and if the individual could benefit from a shock delivered from the AED; and (vi) deliver, via the first and/or second electrode pad, a shock to the individual, or request a CPR-free heart rhythm analysis.
A regulator valve comprising. a valve sleeve centered on an axis, and incorporating a first inlet port extending radially through said valve sleeve into an internal bore , and a first outlet port extending radially outwardly from said internal bore through an outer periphery of said valve sleeve , and a second inlet port on an opposed side of said first outlet port from said first inlet port , said second inlet port extending radially through a wall of said valve sleeve and into said internal bore ; and a valve spool received in said internal bore , and biased by a spring force, said valve spool having a first channel at an outer peripheral surface selectively communicating said first inlet port to said first outlet port , and said valve spool having a second channel at the outer peripheral surface, said second channel selectively communicating said second inlet port to an axial vent formed in an internal surface of said valve sleeve , said axial vent extending axially to communicate said second channel to said first outlet port , wherein the axial vent is formed by axial slots.
A surgical assembly for transferring fluid to or from a subject, comprising: a tubular cannula having opposing proximal and distal ends with an open axially extending lumen; an elongate needle having opposing proximal and distal ends, wherein a length of the needle extends through the tubular cannula lumen so that the distal end of the needle with a tip extends out of the distal end of the tubular cannula to provide an exposed needle tip; and a housing comprising opposing proximal and distal ends, wherein the housing holds the tubular cannula with the needle , the tubular cannula and the needle extending out of the distal end of the housing, wherein the housing comprises an internal length-adjustment mechanism (50; 50'; 50") that is attached to one or both of the tubular cannula and the needle , on the one hand, and to the housing on the other, that adjusts a length between the distal end of the tubular cannula and the exposed tip of the needle; and wherein the needle comprises an inner capillary tube that extends a distance beyond the proximal end of the housing and through the housing to the needle tip to define the needle tip. a tubular cannula having opposing proximal and distal ends with an open axially extending lumen; an elongate needle having opposing proximal and distal ends, wherein a length of the needle extends through the tubular cannula lumen so that the distal end of the needle with a tip extends out of the distal end of the tubular cannula to provide an exposed needle tip; and a housing comprising opposing proximal and distal ends, wherein the housing holds the tubular cannula with the needle , the tubular cannula and the needle extending out of the distal end of the housing, wherein the housing comprises an internal length-adjustment mechanism (50; 50'; 50") that is attached to one or both of the tubular cannula and the needle , on the one hand, and to the housing on the other, that adjusts a length between the distal end of the tubular cannula and the exposed tip of the needle; and wherein the needle comprises an inner capillary tube that extends a distance beyond the proximal end of the housing and through the housing to the needle tip to define the needle tip.
An adapter to double available charging handles for an electric vehicle charging station, comprising: an adapter controller configured to electrically connect to a charging port of an electric vehicle charging station , the adapter controller being further configured to electrically connect to two electric vehicle charging handles configured to charge two electric vehicles; a charge sharing control circuit in the adapter controller , coupled to two electric vehicle control pilot connectors (CP(A), CP(B)) in two electric vehicle charging handles and coupled to a charging station control pilot socket (CP) in the charging port of the electric vehicle charging station, the charge sharing control circuit being configured to determine a modified available charging rate to be offered to each of the two electric vehicles, for sharing power by simultaneously charging the two electric vehicles, based on connection states of the two electric vehicles to the electric vehicle charging handles and based on an available charging rate offered by the charging station; the adapter controller being configured to provide a signal to the charging station control pilot socket (CP), to simulate that a charging handle is connected and an electric vehicle is ready to receive charge, thereby causing the charging station to begin delivering power to the adaptor controller ; and the adapter controller being further configured to transmit to each of the two electric vehicles, a charging rate offer representing the determined modified available charging rate. an adapter controller configured to electrically connect to a charging port of an electric vehicle charging station , the adapter controller being further configured to electrically connect to two electric vehicle charging handles configured to charge two electric vehicles; a charge sharing control circuit in the adapter controller , coupled to two electric vehicle control pilot connectors (CP(A), CP(B)) in two electric vehicle charging handles and coupled to a charging station control pilot socket (CP) in the charging port of the electric vehicle charging station, the charge sharing control circuit being configured to determine a modified available charging rate to be offered to each of the two electric vehicles, for sharing power by simultaneously charging the two electric vehicles, based on connection states of the two electric vehicles to the electric vehicle charging handles and based on an available charging rate offered by the charging station; the adapter controller being configured to provide a signal to the charging station control pilot socket (CP), to simulate that a charging handle is connected and an electric vehicle is ready to receive charge, thereby causing the charging station to begin delivering power to the adaptor controller ; and the adapter controller being further configured to transmit to each of the two electric vehicles, a charging rate offer representing the determined modified available charging rate.
A balloon catheter system comprising one or more conduits to which a compliant balloon is attached at both of its ends, said conduit(s) being threaded through said balloon , wherein said balloon has a non-helical shape in its deflated state, wherein said balloon is capable of adopting a spiral or helical conformation upon inflation without the need for any ancillary structures such as wires, bands or formers, wherein the relative values of the length of the balloon in the deflated state (L 0 ), the elongation fraction (E) and the inner diameter of said balloon in the deflated state (D 0 ) are chosen, such that the number of threads (N) of said balloon in said spiral conformation is at least two, in accordance with the following expression: N = L 0 2 π 2 D 0 2 − L 0 2 π 2 D 0 2 1 + E 2 = L 0 2 E 2 + E π 2 D 0 2 1 + E 2 ≥ 2
A pump system comprising: a pipeline assembly for transporting fluid; a pump assembly comprising a plurality of pumps arranged along the pipeline assembly ; a pump motor assembly comprising a plurality of pump motors driving the plurality of pumps of the pump assembly; a control assembly for controlling speed of the pump motors and discharge pressure and flow rate of the pumps ; and at least one interface detection meter in communication with the pipeline assembly , the interface detection meter determining properties of the fluid in the pipeline assembly , and the control assembly controlling the speeds and the discharge pressures according to the properties determined of the fluid in the pipeline assembly , wherein the control assembly is configured to transmit data of the properties of the fluid and calculates speed set points and discharge pressure set points, wherein the control assembly comprises a first logic control comprising feed-forward control logic for transmitting the data of the properties of the fluid, wherein the control assembly is configured to detect a fluid interface of a batch change of the fluid transported in the pipeline assembly and to automatically adjust the speed set points and discharge pressure set points in a continuous manner when the fluid interface travels through the pipeline assembly , and wherein the at least one interface detection meter is configured as a transit-time ultrasonic meter. a pipeline assembly for transporting fluid; a pump assembly comprising a plurality of pumps arranged along the pipeline assembly ; a pump motor assembly comprising a plurality of pump motors driving the plurality of pumps of the pump assembly; a control assembly for controlling speed of the pump motors and discharge pressure and flow rate of the pumps ; and at least one interface detection meter in communication with the pipeline assembly , the interface detection meter determining properties of the fluid in the pipeline assembly , and the control assembly controlling the speeds and the discharge pressures according to the properties determined of the fluid in the pipeline assembly , wherein the control assembly is configured to transmit data of the properties of the fluid and calculates speed set points and discharge pressure set points, wherein the control assembly comprises a first logic control comprising feed-forward control logic for transmitting the data of the properties of the fluid, wherein the control assembly is configured to detect a fluid interface of a batch change of the fluid transported in the pipeline assembly and to automatically adjust the speed set points and discharge pressure set points in a continuous manner when the fluid interface travels through the pipeline assembly , and wherein the at least one interface detection meter is configured as a transit-time ultrasonic meter.
A subsea foundation for supporting a pipeline or a pipeline accessory, the foundation comprising: a mudmat ; at least one pile arranged to anchor the mudmat in use by extending with a relative orientation from the mudmat into seabed soil; and a coupling that couples the pile to the mudmat , the coupling comprising at least one interface member supported by the pile for angular displacement relative to the pile and to the mudmat to accommodate the orientation of the mudmat relative to the pile ; wherein the foundation further comprises at least one of: a roll/pitch pivot between the pile and the interface member , the roll/pitch pivot being oriented to permit angular movement of the interface member about a transverse axis substantially orthogonal to a central longitudinal axis of the pile ; and a yaw pivot between the pile and the interface member , the yaw pivot being oriented to permit angular movement of the interface member about a central longitudinal axis of the pile . a mudmat ; at least one pile arranged to anchor the mudmat in use by extending with a relative orientation from the mudmat into seabed soil; and a coupling that couples the pile to the mudmat , the coupling comprising at least one interface member supported by the pile for angular displacement relative to the pile and to the mudmat to accommodate the orientation of the mudmat relative to the pile ; wherein the foundation further comprises at least one of: a roll/pitch pivot between the pile and the interface member , the roll/pitch pivot being oriented to permit angular movement of the interface member about a transverse axis substantially orthogonal to a central longitudinal axis of the pile ; and a yaw pivot between the pile and the interface member , the yaw pivot being oriented to permit angular movement of the interface member about a central longitudinal axis of the pile . a roll/pitch pivot between the pile and the interface member , the roll/pitch pivot being oriented to permit angular movement of the interface member about a transverse axis substantially orthogonal to a central longitudinal axis of the pile ; and a yaw pivot between the pile and the interface member , the yaw pivot being oriented to permit angular movement of the interface member about a central longitudinal axis of the pile .
A rotary machine for mixing, pumping or agitating a fluid comprising an impeller for acting on the fluid, a drive unit for rotating the impeller around a rotation axis (A), a drive shaft connecting the impeller with the drive unit , a mounting flange for fastening the rotary machine to a wall of a vessel , and a support structure for supporting the rotary machine, wherein the support structure comprises at least one leg , each leg extending in a vertical plane from a first end along a longitudinal axis (L) to a second end , characterized in that each leg comprises an outer member and an inner member coaxially arranged in the outer member , wherein the inner member is slidingly movable relative to the outer member for adjusting the length (H) of the respective leg and wherein each leg comprises a mounting plate at the first end of the respective leg for mounting the leg to a housing part of the rotary machine , and a base plate at the second end of the respective leg for connecting the leg to a foundation or the ground .