mhurhangee/ep-ind-claims huggingface dataset:
Emergency valve for a brake system of a hydraulically braked tractor and a pneumatically braked trailer coupled to the tractor, a) comprising a hydraulic control port for a hydraulic brake pressure of the tractor, b) comprising a pneumatic control port for a pneumatic brake pressure controlled by a trailer control valve of the tractor, c) comprising a supply port which can be connected to a supply reservoir of the tractor, d) comprising an outlet port for a supply coupling head, e) comprising a valve body which is biased towards a first operating position by the pressure at the pneumatic control port and which is biased in opposite direction towards a second operating position with a switching force which depends on the pressure at the hydraulic control port, f) the supply port being connected in the second operating position by a smaller throttling cross section to the outlet port than in the first operating position and g) comprising an adapter piston surface at which the pressure at the hydraulic control port generates the switching force. a) comprising a hydraulic control port for a hydraulic brake pressure of the tractor, b) comprising a pneumatic control port for a pneumatic brake pressure controlled by a trailer control valve of the tractor, c) comprising a supply port which can be connected to a supply reservoir of the tractor, d) comprising an outlet port for a supply coupling head, e) comprising a valve body which is biased towards a first operating position by the pressure at the pneumatic control port and which is biased in opposite direction towards a second operating position with a switching force which depends on the pressure at the hydraulic control port, f) the supply port being connected in the second operating position by a smaller throttling cross section to the outlet port than in the first operating position and g) comprising an adapter piston surface at which the pressure at the hydraulic control port generates the switching force.
A patient interface for respiratory therapy comprising a connection port assembly and a mask assembly comprising: a mask wall; and a mask seal configured to contact the patient's face, characterized in that the mask wall comprises an inner surface and wherein the inner surface of the mask wall comprises microstructures on at least a portion thereof; wherein the microstructures are configured to spread out liquid water along at least a portion of the length of the microstructures, so that the liquid water evaporates more readily. a mask wall; and a mask seal configured to contact the patient's face, characterized in that the mask wall comprises an inner surface and wherein the inner surface of the mask wall comprises microstructures on at least a portion thereof; wherein the microstructures are configured to spread out liquid water along at least a portion of the length of the microstructures, so that the liquid water evaporates more readily.
A load carrier foot comprising a torque transfer device (30', 30) and a hood or lid for closing the load carrier foot, the torque transfer device being adapted to transfer a torque via a rotational motion by a user, said torque transfer device (30', 30) comprising a connection member, such as a screw, connectable to said load carrier foot and a head portion arranged to said connection member, said connection member comprises a longitudinal centre axis about which the torque transfer device is adapted to rotate, said head portion comprising a first and a second member (41, 42), said first member and said second member are configured to cooperate so that said first member can be rotated a limited amount of degrees without transferring torque to said connection member, wherein said limited amount of degrees is equal or less than ±350 degrees, characterized in that the rotation permitted by the first member allows the first member to be stored inside the load carrier foot when the hood or lid is closed, whereby the first member interacts with the hood or lid to provide a lock, thereby preventing the torque transfer device (30', 30) from accidentally unscrewing itself.
A cell structure comprising: a cathode; an anode; and a solid electrolyte layer interposed between the cathode and the anode, the cathode being in the form of a sheet, the anode being in the form of a sheet, the solid electrolyte layer being in the form of a sheet, the solid electrolyte layer being disposed on the anode, the cathode being disposed on the solid electrolyte layer, the cathode having a resistance Rc, the anode and the solid electrolyte layer having a resistance Ra, the resistance Rc and the resistance Ra satisfying a relationship of Rc/Ra ≥ 0.3, the resistances Ra and Rc being measured as defined in the description, the cathode including a first metal oxide having a perovskite crystal structure, the cathode having a thickness larger than 15 μm and equal to or less than 30 μm. a cathode; an anode; and a solid electrolyte layer interposed between the cathode and the anode, the cathode being in the form of a sheet, the anode being in the form of a sheet, the solid electrolyte layer being in the form of a sheet, the solid electrolyte layer being disposed on the anode, the cathode being disposed on the solid electrolyte layer, the cathode having a resistance Rc, the anode and the solid electrolyte layer having a resistance Ra, the resistance Rc and the resistance Ra satisfying a relationship of Rc/Ra ≥ 0.3, the resistances Ra and Rc being measured as defined in the description, the cathode including a first metal oxide having a perovskite crystal structure, the cathode having a thickness larger than 15 μm and equal to or less than 30 μm.
An assembly to support a fastener (302, 310), the assembly comprising: a barrier; and a fitting comprising: a body, wherein at least a portion of the body is enclosable between opposite ends of the fastener (302, 310); and a first flange (404, 408) and a second flange (402, 406) extending from the body; wherein the fitting is operable to rotate from a first angular position to a second angular position based on contact between the first flange (404, 408) and the fastener (302, 310) and a torque applied to the fastener (302, 310); and wherein: in the first angular position, a gap (319a, 319b) separates the second flange (402, 406) from the barrier, and in the second angular position, the second flange (402, 406) is operable to prevent rotation of the fastener (302, 310) based on contact between the barrier and the second flange (402, 406). a barrier; and a fitting comprising: a body, wherein at least a portion of the body is enclosable between opposite ends of the fastener (302, 310); and a first flange (404, 408) and a second flange (402, 406) extending from the body; a body, wherein at least a portion of the body is enclosable between opposite ends of the fastener (302, 310); and a first flange (404, 408) and a second flange (402, 406) extending from the body; wherein the fitting is operable to rotate from a first angular position to a second angular position based on contact between the first flange (404, 408) and the fastener (302, 310) and a torque applied to the fastener (302, 310); and wherein: in the first angular position, a gap (319a, 319b) separates the second flange (402, 406) from the barrier, and in the second angular position, the second flange (402, 406) is operable to prevent rotation of the fastener (302, 310) based on contact between the barrier and the second flange (402, 406). in the first angular position, a gap (319a, 319b) separates the second flange (402, 406) from the barrier, and in the second angular position, the second flange (402, 406) is operable to prevent rotation of the fastener (302, 310) based on contact between the barrier and the second flange (402, 406).
A method for configuring, via a website, a device to provide printing services to a local network, comprising: creating, via a website, a service host object that comprises a network address of a device on a local network and a service host name, wherein the website is hosted by a server located behind a firewall blocking network traffic from the local network, the server being configured to communicate with the device through the firewall; configuring, via the website, one or more printing service settings for one or more printing services; sending, by the server, an indication to the device on the local network to run a service manager that enables the device as a printing service host to act as a proxy for the server to communicate with the one or more printing services running on the local network behind the firewall; and sending, by the server, an indication to the service manager to run the one or more printing services on the local network based on the one or more printing service settings, wherein the one or more printing services communicate at regular intervals with the server to determine whether the printing service settings have been reconfigured or updated. creating, via a website, a service host object that comprises a network address of a device on a local network and a service host name, wherein the website is hosted by a server located behind a firewall blocking network traffic from the local network, the server being configured to communicate with the device through the firewall; configuring, via the website, one or more printing service settings for one or more printing services; sending, by the server, an indication to the device on the local network to run a service manager that enables the device as a printing service host to act as a proxy for the server to communicate with the one or more printing services running on the local network behind the firewall; and sending, by the server, an indication to the service manager to run the one or more printing services on the local network based on the one or more printing service settings, wherein the one or more printing services communicate at regular intervals with the server to determine whether the printing service settings have been reconfigured or updated.
A piezoelectric pump, comprising: a piezoelectric device having a through-hole; a first elastic plate covering an end of the through-hole and having a communication hole communicating with the through-hole; and a second elastic plate covering another end of the through-hole, characterized in that at least one of the first elastic plate or the second elastic plate includes a recess (15, 16) inward in an axial direction of the through-hole, wherein the at least one of the first elastic plate or the second elastic plate including the recess (15, 16) includes a flat portion (17, 18) surrounding the recess (15, 16) and a groove located between the recess (15, 16) and the flat portion (17, 18). a piezoelectric device having a through-hole; a first elastic plate covering an end of the through-hole and having a communication hole communicating with the through-hole; and a second elastic plate covering another end of the through-hole, characterized in that at least one of the first elastic plate or the second elastic plate includes a recess (15, 16) inward in an axial direction of the through-hole, wherein the at least one of the first elastic plate or the second elastic plate including the recess (15, 16) includes a flat portion (17, 18) surrounding the recess (15, 16) and a groove located between the recess (15, 16) and the flat portion (17, 18).
A method for producing a 3D item by means of fused deposition modelling, the method comprising: - a 3D printing stage comprising: layer-wise depositing 3D printable material, wherein the 3D printable material comprises 3D printable core material and 3D printable shell material, to provide the 3D item comprising a core-shell layer of 3D printed material, wherein the 3D printed material comprises a core comprising 3D printed core material and a shell comprising 3D printed shell material, wherein the shell at least partly encloses the core, characterized in that the 3D printable core material comprises a pore forming material with a first concentration c1, wherein the 3D printable shell material comprises the pore forming material with a second concentration c2, wherein c2/c1≤0.9; and - a pore forming stage comprising: heating one or more of (i) the printable material and (ii) the 3D printed material. - a 3D printing stage comprising: layer-wise depositing 3D printable material, wherein the 3D printable material comprises 3D printable core material and 3D printable shell material, to provide the 3D item comprising a core-shell layer of 3D printed material, wherein the 3D printed material comprises a core comprising 3D printed core material and a shell comprising 3D printed shell material, wherein the shell at least partly encloses the core, characterized in that the 3D printable core material comprises a pore forming material with a first concentration c1, wherein the 3D printable shell material comprises the pore forming material with a second concentration c2, wherein c2/c1≤0.9; and - a pore forming stage comprising: heating one or more of (i) the printable material and (ii) the 3D printed material.
A method for segmenting a feature of interest from a volume image, comprising: acquiring image data elements from the volume image of a subject; displaying at least one view of the acquired volume; identifying one or more boundary points along a boundary of the feature of interest according to one or more geometric primitives defined by a user with reference to the displayed at least one view; forming a foreground seed curve (1414, 1702, 1800, 2202, 2204, 2206) defined according to the one or more identified boundary points; forming a background seed curve (1332, 1406, 1420, 1802, 2212, 2214, 2216) encompassing and spaced apart from the foreground seed curve; applying segmentation to the volume image according to foreground values obtained according to image data elements that are spatially bounded on or within the foreground seed curve (1414, 1702, 1800, 2202, 2204, 2206) and according to background values that lie on or outside the background seed curve (1332, 1406, 1420, 1802, 2212, 2214, 2216); and storing, transmitting, or displaying an image of the segmented feature of interest. acquiring image data elements from the volume image of a subject; displaying at least one view of the acquired volume; identifying one or more boundary points along a boundary of the feature of interest according to one or more geometric primitives defined by a user with reference to the displayed at least one view; forming a foreground seed curve (1414, 1702, 1800, 2202, 2204, 2206) defined according to the one or more identified boundary points; forming a background seed curve (1332, 1406, 1420, 1802, 2212, 2214, 2216) encompassing and spaced apart from the foreground seed curve; applying segmentation to the volume image according to foreground values obtained according to image data elements that are spatially bounded on or within the foreground seed curve (1414, 1702, 1800, 2202, 2204, 2206) and according to background values that lie on or outside the background seed curve (1332, 1406, 1420, 1802, 2212, 2214, 2216); and storing, transmitting, or displaying an image of the segmented feature of interest.
Navigation arrangement for a motor vehicle (2, 3, 4, 5), which navigation arrangement has a motor vehicle, an isolated immobile memory, where isolated signifies not connected to a network, for storing at least one piece of navigation information, a wireless communication link (218, 518) between the isolated immobile memory and the motor vehicle (2, 3, 4, 5) for the purpose of transmitting the navigation information from the isolated immobile memory to the motor vehicle (2, 3, 4, 5) and a man/machine interface, arranged in the motor vehicle, for outputting the navigation information to an operator of the motor vehicle, characterized in that the navigation arrangement has a further motor vehicle (2, 3, 4, 5), and, when the further motor vehicle is outside a range of the isolated immobile memory, so that it is not possible for a direct wireless communication link (218, 518) to be set up to the isolated immobile memory, it is possible for a wireless communication link (203, 304) to be set up between the motor vehicle (2, 3, 4, 5) and the further motor vehicle (2, 3, 4, 5) for the purpose of transmitting the navigation information transmitted from the isolated immobile memory to the motor vehicle (2, 3, 4, 5) from the motor vehicle (2, 3, 4, 5) to the further motor vehicle (2, 3, 4, 5).
A temperature control assembly for controlling the temperature of functional parts (208; 209; 213; 223; 224; 227 d; 231; 232) of a printing machine, wherein the temperature control assembly comprises a plurality of assembly-side sub-circuits (126 k), the temperature of which is to be individually controlled, each having a temperature control fluid outlet (107 k) and a temperature control fluid inlet (111 k), on each of which, in order to form a respective temperature control circuit (127 k), one or more functional parts can be connected as loads (V x) of a temperature-controlling external temperature control sub-circuit (109 k) by means of releasable connections, and which, on the feed side for the temperature control thereof, are or can be thermally and/or fluidically coupled via respective removal points (102 k) to a common feed line and on the return side via each return point (103 k) to a common fluid return, and wherein the temperature control assembly is designed as a structurally independent assembly, comprising the assembly-side temperature control circuits (126 k) thereof and the feed and return (123; 124) and a temperature control device that controls the temperature of the temperature control fluid supplied to the feed, on or in a single-component or multiple-component frame of the temperature control assembly, wherein the temperature control device is provided in the fluid stream between the last return point (103 k) and the first removal point (102 k), characterized in that a line section (123.1) of the feed line, which extends at least over the length from the first removal point (102 1) to the last downstream removal point (102 k) of the assembly-side temperature control circuit (126 k), has an average line cross-section (A123.1) which in the case of a number n of temperature control fluid outlets (107 k) corresponds to more than n-fold of the average line cross-section (A123.2) of a supply line section (123.2) arranged in the feed downstream of the temperature control device and arranged upstream of said line section (123.1) and/or which corresponds to more than n-fold of a free line cross-section (A102 k) upstream of each of or of the largest removal point (102 k).
A data processing method comprising: Selecting, as a codeword, one from among vectors, which are composed of multiple elements and have a predetermined size; Generating a helper matrix for moving real number data to the selected codeword on a spherical surface, wherein the real number data is at least one of biometric information data, voice information data, or location information data and Outputting the helper matrix. Selecting, as a codeword, one from among vectors, which are composed of multiple elements and have a predetermined size; Generating a helper matrix for moving real number data to the selected codeword on a spherical surface, wherein the real number data is at least one of biometric information data, voice information data, or location information data and Outputting the helper matrix.
A wireline services system server, wherein the wireline services include deployment of one or more tools in a bore in a geologic environment, comprising: a processor; memory operatively coupled to the processor; a network interface; at least one wireline services equipment interface, one or more latency determination components; and processor-executable instructions stored in the memory executable to instruct the wireline services system server to: build a model of a wireline services equipment, including a winch, set up at a wellsite, the model including a winch monitor/control block, operate in a user interactive mode via receipt of client communications via a network connection at the network interface; operate in an automated mode; and operate in a safe mode responsive to interruption of a network connection at the network interface, wherein a transition from one mode to another mode is based at least in part on latency information, wherein the automated mode or the safe mode operates at least in part on the model. a processor; memory operatively coupled to the processor; a network interface; at least one wireline services equipment interface, one or more latency determination components; and processor-executable instructions stored in the memory executable to instruct the wireline services system server to: build a model of a wireline services equipment, including a winch, set up at a wellsite, the model including a winch monitor/control block, operate in a user interactive mode via receipt of client communications via a network connection at the network interface; operate in an automated mode; and operate in a safe mode responsive to interruption of a network connection at the network interface, wherein a transition from one mode to another mode is based at least in part on latency information, wherein the automated mode or the safe mode operates at least in part on the model. build a model of a wireline services equipment, including a winch, set up at a wellsite, the model including a winch monitor/control block, operate in a user interactive mode via receipt of client communications via a network connection at the network interface; operate in an automated mode; and operate in a safe mode responsive to interruption of a network connection at the network interface, wherein a transition from one mode to another mode is based at least in part on latency information, wherein the automated mode or the safe mode operates at least in part on the model.
A pressure sensing element comprising: an electro-conductive pressure sensing film; a sensor electrode provided at a position faced to the pressure sensing film; and an insulating layer which creates a predetermined distance between the pressure sensing film and the sensor electrode so as to keep them apart from each other, wherein when force is not applied to the pressure sensing element, the pressure sensing film does not directly contact the sensor electrode, and when force is applied to the pressure sensing element, the pressure sensing film contacts the sensor electrode, characterised in that the pressure sensing film is a resin film containing carbon particles, wherein a resin composing the pressure sensing film contains polyimide or polyamide-imide as a main ingredient; and a surface of the pressure sensing film, faced to the sensor electrode, has a surface roughness Rz of 0.10 μm or larger and 0.50 μm or smaller. an electro-conductive pressure sensing film; a sensor electrode provided at a position faced to the pressure sensing film; and an insulating layer which creates a predetermined distance between the pressure sensing film and the sensor electrode so as to keep them apart from each other, wherein when force is not applied to the pressure sensing element, the pressure sensing film does not directly contact the sensor electrode, and when force is applied to the pressure sensing element, the pressure sensing film contacts the sensor electrode, characterised in that the pressure sensing film is a resin film containing carbon particles, wherein a resin composing the pressure sensing film contains polyimide or polyamide-imide as a main ingredient; and a surface of the pressure sensing film, faced to the sensor electrode, has a surface roughness Rz of 0.10 μm or larger and 0.50 μm or smaller.