mhurhangee/ep-ind-claims huggingface dataset:
Device for controlling a trailer-brake valve, connectable to the braking system of a trailer, for hydrostatic-driven towing vehicles which is provided with at least one variable displacement pump, comprising: - at least one adjustment line connectable to at least one of a delivery line of a work fluid under pressure and a discharge line and connectable to an adjustment device for adjusting the displacement variation in the pump of a towing vehicle, said adjustment line being adapted to convey the work fluid to the pump itself to vary the displacement thereof; - first piloting means operatively connectable to a trailer-brake valve to displace it from a home position to at least one braking position of the trailer, characterized by the fact that said first piloting means comprise - at least one accumulator of the work fluid, - at least one fluid operated cylinder inside which is defined a first chamber communicating with said adjustment line and a second chamber communicating with a thrust line which, in turn, communicates with said accumulator, wherein inside said cylinder is housed in a sliding manner at least one piston on which said first and said second chamber (14, 15) act on opposite sides, said piston being adapted to interact with said trailer-brake valve to displace it from the home position to the braking position as a result of a decrease in pressure occurring in said first chamber with respect to said second chamber, and characterized by the fact that it comprises at least one connecting channel interposed between said adjustment line and said thrust line and flow adjusting means arranged along said connecting channel adapted to allow the passage of the work fluid from said adjustment line to said thrust line and to choke the passage of the work fluid from said thrust line to said adjustment line, so as to define a pressure difference between them as a result of a drop in pressure along said adjustment line. - at least one adjustment line connectable to at least one of a delivery line of a work fluid under pressure and a discharge line and connectable to an adjustment device for adjusting the displacement variation in the pump of a towing vehicle, said adjustment line being adapted to convey the work fluid to the pump itself to vary the displacement thereof; - first piloting means operatively connectable to a trailer-brake valve to displace it from a home position to at least one braking position of the trailer, characterized by the fact that said first piloting means comprise - at least one accumulator of the work fluid, - at least one fluid operated cylinder inside which is defined a first chamber communicating with said adjustment line and a second chamber communicating with a thrust line which, in turn, communicates with said accumulator, wherein inside said cylinder is housed in a sliding manner at least one piston on which said first and said second chamber (14, 15) act on opposite sides, said piston being adapted to interact with said trailer-brake valve to displace it from the home position to the braking position as a result of a decrease in pressure occurring in said first chamber with respect to said second chamber,
A frit material, which is formed from a composition, wherein the compositioncomprises before melting: Ingredient Normalized Mole % vanadium oxide 45-50%, barium oxide 20-23%, and zinc oxide 19-21%; and at least six additives selected from the group consisting of: Ta 2 O 5, Ti 2 O 3, SrCl 2, GeO 2, CuO, AgO, Nb 2 O 5, B 2 O 3, MgO, SiO 2, TeO 2, Tl 2 O 3, Y 2 O 3, SnF 2, SnO 2, SnCl 2, CeO 2, AgCl, In 2 O 3, SnO, SrO, MoO 3, CsCO 3, and Al 2 O 3, and wherein at least one of said at least six additives is Nb 2 O 5 and between 1 - 3 mole %. at least six additives selected from the group consisting of: Ta 2 O 5, Ti 2 O 3, SrCl 2, GeO 2, CuO, AgO, Nb 2 O 5, B 2 O 3, MgO, SiO 2, TeO 2, Tl 2 O 3, Y 2 O 3, SnF 2, SnO 2, SnCl 2, CeO 2, AgCl, In 2 O 3, SnO, SrO, MoO 3, CsCO 3, and Al 2 O 3, and wherein at least one of said at least six additives is Nb 2 O 5 and between 1 - 3 mole %.
An absorptive, ultra-violet, inorganic and dielectric grid polarizer device, comprising: a) a substrate; b) a stack comprising two layers (18a, 18b) disposed over the substrate, including a transmitting layer and an optically absorbing layer with respect to the ultra-violet spectrum; c) each of the two layers (18a, 18b) being formed of a material that is both inorganic and dielectric; d) the two layers (18a, 18b) having different refractive indices; e) the two layers (18a, 18b) being discontinuous to form form-birefringent layers with an array of parallel ribs having a period less than 400 nm; and f) the transmitting layer is directly disposed on the substrate and is disposed between the optically absorbing layer and the substrate. a) a substrate; b) a stack comprising two layers (18a, 18b) disposed over the substrate, including a transmitting layer and an optically absorbing layer with respect to the ultra-violet spectrum; c) each of the two layers (18a, 18b) being formed of a material that is both inorganic and dielectric; d) the two layers (18a, 18b) having different refractive indices; e) the two layers (18a, 18b) being discontinuous to form form-birefringent layers with an array of parallel ribs having a period less than 400 nm; and f) the transmitting layer is directly disposed on the substrate and is disposed between the optically absorbing layer and the substrate.
A multistage compressor unit, consisting of a low-pressure charging device having a low-pressure compressor housing, a high-pressure charging device having a high-pressure compressor housing and a cooling device, wherein the cooling device has a cooling device housing and the cooling device housing of the cooling device is indirectly connected to the low-pressure compressor housing of the low-pressure charging device and the high-pressure compressor housing of the high-pressure charging device and the cooling device has flow channels for a coolant, wherein a joint is constructed between an outlet or inlet of a pressure charging device (1, 2) and an inlet or outlet of the cooling device as a connecting part, wherein a first side of the connecting part substantially corresponds in cross-section to the inlet or outlet of a pressure charging device (1, 2) and a second side of the connecting part substantially corresponds in cross-section to the inlet or outlet of the cooling device, characterised in that in the low-pressure compressor housing flow channels for the coolant are constructed.
A myocardial excitation determining apparatus comprising: an acquiring section configured to acquire an intracardiac electrocardiogram of a subject; a processing section configured to perform computation to produce visualized data indicating a state of excitation in a myocardium, based on the intracardiac electrocardiogram; and a determining section configured to determine a type of excitation dynamics of the myocardium based on the visualized data; wherein the visualized data are configured by frames for every predetermined time unit, each of the frames being partitioned into a plurality of grids, and the determining section has a calculating section which is configured to calculate total numbers of excitation grids contained in the frames, wherein an excitation grid is a grid indicating the state of excitation in the myocardium, and determine the type of excitation dynamics of the myocardium, based on the total number excitation grids for each of the frames. an acquiring section configured to acquire an intracardiac electrocardiogram of a subject; a processing section configured to perform computation to produce visualized data indicating a state of excitation in a myocardium, based on the intracardiac electrocardiogram; and a determining section configured to determine a type of excitation dynamics of the myocardium based on the visualized data; wherein the visualized data are configured by frames for every predetermined time unit, each of the frames being partitioned into a plurality of grids, and the determining section has a calculating section which is configured to calculate total numbers of excitation grids contained in the frames, wherein an excitation grid is a grid indicating the state of excitation in the myocardium, and determine the type of excitation dynamics of the myocardium, based on the total number excitation grids for each of the frames.
A shoulder prosthetic comprising: an articulating bearing member; a glenoid tray configured to be implanted into a resected glenoid, the glenoid tray having a glenoid interface surface and an opposed bearing mounting surface; a bearing coupling member having an interface surface configured to engage the bearing mounting surface, said bearing coupling member having a bearing coupling surface (50,53, 54) configured to mate to a corresponding surface on the articulating bearing member; characterised in that a spring member is annularly disposed in relation to the bearing coupling member, said spring member being coupled to the articulating bearing member and one of the glenoid tray or the bearing coupling member. an articulating bearing member; a glenoid tray configured to be implanted into a resected glenoid, the glenoid tray having a glenoid interface surface and an opposed bearing mounting surface; a bearing coupling member having an interface surface configured to engage the bearing mounting surface, said bearing coupling member having a bearing coupling surface (50,53, 54) configured to mate to a corresponding surface on the articulating bearing member; characterised in that a spring member is annularly disposed in relation to the bearing coupling member, said spring member being coupled to the articulating bearing member and one of the glenoid tray or the bearing coupling member.
A tool for imaging a formation, the tool comprising: a pad capable of alignment adjacent a wall of the formation, the pad having located thereon: an imaging electrode (90, 90') for injecting current into the formation; a first return electrode (96, 96') separated from the imaging electrode (90, 90') for receiving the injected current; and at least one recessed electrode (92, 92') for injecting current into the formation, the at least one recessed electrode (92, 92') being located at a different distance from the wall of the formation as the other imaging electrodes. a pad capable of alignment adjacent a wall of the formation, the pad having located thereon: an imaging electrode (90, 90') for injecting current into the formation; a first return electrode (96, 96') separated from the imaging electrode (90, 90') for receiving the injected current; and at least one recessed electrode (92, 92') for injecting current into the formation, the at least one recessed electrode (92, 92') being located at a different distance from the wall of the formation as the other imaging electrodes. an imaging electrode (90, 90') for injecting current into the formation; a first return electrode (96, 96') separated from the imaging electrode (90, 90') for receiving the injected current; and at least one recessed electrode (92, 92') for injecting current into the formation, the at least one recessed electrode (92, 92') being located at a different distance from the wall of the formation as the other imaging electrodes.
A system for, with a first and a second hand operated control means (11a, 11b), controlling movement on a work tool for a construction machine, the construction machine comprising a lower carriage, a top, a digging arm and a work tool, wherein the digging arm comprises an inner link arm with a first and a second inner link arm end (4a1, 4a2) and an outer link arm with a first and a second outer link arm end (4b1, 4b2), wherein one joint connects the top with the first inner link arm end (4a1), one joint connects the second inner link arm end (4a2) with the first outer link arm end (4b1) and one joint connects the second outer link arm end (4b2) with the work tool, and wherein the work tool is secured in the second outer link arm end (4b1) via an attachment device which enables controlled rotation and controlled tilting of the work tool in relation to the outer link arm; characterized in that the first hand operated control means is intended to control the position of the second outer link arm end (4b2), at least through control of the movements of the inner link arm 4a and the outer link arm 4b relative to each other as well as the rotation of the entire digging arm in relation to the top, and the second hand operated control means is intended to control the function of the tool, comprising controlled rotation and controlled tilting of the work tool in relation to the outer link arm.
A method of forming a protective coating on a surface of a metal article comprising aluminum or aluminum alloy, said method comprising: A) providing an anodizing solution comprised of water and one or more additional components selected from the group consisting of: a) water-soluble complex fluorides, b) water-soluble complex oxyfluorides, c) water-dispersible complex fluorides, and d) water-dispersible complex oxyfluorides ofTi; B) providing a cathode in contact with said anodizing solution; C) placing a metal article comprising aluminum or aluminum alloy as an anode in said anodizing solution; D) passing a current between the anode and cathode through said anodizing solution for a time effective to form a first protective coating on the surface of the metal article; E) removing the metal article having a first protective coating from the anodizing solution and drying said article; and F) applying one or more layers of coating material to the metal article having a first protective coating, to form a second protective coating layer wherein at least one of the layers comprises a thermal spray applied material. A) providing an anodizing solution comprised of water and one or more additional components selected from the group consisting of: a) water-soluble complex fluorides, b) water-soluble complex oxyfluorides, c) water-dispersible complex fluorides, and d) water-dispersible complex oxyfluorides ofTi; a) water-soluble complex fluorides, b) water-soluble complex oxyfluorides, c) water-dispersible complex fluorides, and d) water-dispersible complex oxyfluorides ofTi; B) providing a cathode in contact with said anodizing solution; C) placing a metal article comprising aluminum or aluminum alloy as an anode in said anodizing solution; D) passing a current between the anode and cathode through said anodizing solution for a time effective to form a first protective coating on the surface of the metal article; E) removing the metal article having a first protective coating from the anodizing solution and drying said article; and F) applying one or more layers of coating material to the metal article having a first protective coating, to form a second protective coating layer wherein at least one of the layers comprises a thermal spray applied material.
Coated substrate comprising at least one electrically conductive coating comprising crystalline tungsten-doped tin oxide, characterized in that the at least one electrically conductive coating has a layer thickness from a range from 170 to 5000 nm and in that the at least one electrically conductive coating comprises columnar tungsten-doped tin oxide crystallites, wherein an insulator layer is disposed between the at least one electrically conductive coating and the substrate, wherein the substrate is a ceramic substrate or a polymeric organic substrate having a melting point or a glass transition temperature of more than 300°C. in that the at least one electrically conductive coating has a layer thickness from a range from 170 to 5000 nm and in that the at least one electrically conductive coating comprises columnar tungsten-doped tin oxide crystallites, wherein an insulator layer is disposed between the at least one electrically conductive coating and the substrate, wherein the substrate is a ceramic substrate or a polymeric organic substrate having a melting point or a glass transition temperature of more than 300°C.
A propeller, comprising: a hub (415, 515, 615, 715); and a blade (413, 513, 613, 713) coupled to and rotated by the hub, the blade comprising at least one passively movable portion, wherein the at least one passively movable portion of the blade is at least one of: passively movably coupled to the hub via a flexible joint (417, 517, 617); or passively movably coupled to a second portion of the blade via a flexible joint (417, 517, 617), the second portion of the blade being coupled to the hub; wherein the flexible joint comprises at least one of a living hinge, a section of flexible material, and carbon fibre strands configured to flex; wherein the blade is configured to move between at least a first configuration and a second configuration, the first configuration comprising a first geometry of the blade, and the second configuration comprising a second geometry of the blade; and wherein the first geometry is different than the second geometry. a hub (415, 515, 615, 715); and a blade (413, 513, 613, 713) coupled to and rotated by the hub, the blade comprising at least one passively movable portion, wherein the at least one passively movable portion of the blade is at least one of: passively movably coupled to the hub via a flexible joint (417, 517, 617); or passively movably coupled to a second portion of the blade via a flexible joint (417, 517, 617), the second portion of the blade being coupled to the hub; wherein the flexible joint comprises at least one of a living hinge, a section of flexible material, and carbon fibre strands configured to flex; wherein the blade is configured to move between at least a first configuration and a second configuration, the first configuration comprising a first geometry of the blade, and the second configuration comprising a second geometry of the blade; and wherein the first geometry is different than the second geometry. passively movably coupled to the hub via a flexible joint (417, 517, 617); or passively movably coupled to a second portion of the blade via a flexible joint (417, 517, 617), the second portion of the blade being coupled to the hub; wherein the flexible joint comprises at least one of a living hinge, a section of flexible material, and carbon fibre strands configured to flex; wherein the blade is configured to move between at least a first configuration and a second configuration, the first configuration comprising a first geometry of the blade, and the second configuration comprising a second geometry of the blade; and wherein the first geometry is different than the second geometry.
A method of allowing direct access for a web browser to local resources (170, 174, 176) of a client computer device controlled by a local operating system, wherein a web server hosting a shipping application executes said shipping application in response to web page requests received from said web browser through a first communication channel, said method comprising the steps of: - requesting to a shipping server agent by said web browser through a third communication channel a usage of a web service of said shipping server agent for accessing said local resources, said shipping server agent running as an embedded web server whose client is said web browser, - requesting to said shipping application by said shipping server agent through a second communication channel an authorization for said usage of a web service by said web browser, - providing an authorization response from said shipping application directly to said shipping server agent through the second communication channel regarding said usage of a web service by said web browser, and - accessing local resources by said shipping server agent according to said requesting by said web browser. - requesting to a shipping server agent by said web browser through a third communication channel a usage of a web service of said shipping server agent for accessing said local resources, said shipping server agent running as an embedded web server whose client is said web browser, - requesting to said shipping application by said shipping server agent through a second communication channel an authorization for said usage of a web service by said web browser, - providing an authorization response from said shipping application directly to said shipping server agent through the second communication channel regarding said usage of a web service by said web browser, and - accessing local resources by said shipping server agent according to said requesting by said web browser.
A sample rate converter for converting an input signal sampled at an input sample rate to an output signal sampled at an output sample rate different from the input sample rate, the sample rate converter comprising: a clock source for generating and/or accepting a clock signal; a counter configured to generate a count-disparity signal from the clock signal and the input signal by counting a number of clock cycles of the clock signal between successive samples of the input signal; a first sigma delta loop configured to calculate a temporal correction value from the count-disparity signal as a number of clock cycles of the clock signal between successive samples of the input signal at a sample rate based on the input sample rate; a resampled clock generator configured to generate one or more resampled clock signals from the temporal correction value, wherein sample rates of the one or more resampled clock signals are based on the input sample rate; and a second sigma delta loop configured to generate the output signal from the one or more resampled clock signals and the input signal, wherein the second sigma delta loop generates an incremental output signal on every cycle of a resampled clock signal, out of the one or more resampled clock signals, based on a calculated difference between successive samples of the input signal, and wherein the incremental output signal is added to a previous sample of the output signal to generate a current sample of the output signal at the output sample rate. a clock source for generating and/or accepting a clock signal; a counter configured to generate a count-disparity signal from the clock signal and the input signal by counting a number of clock cycles of the clock signal between successive samples of the input signal; a first sigma delta loop configured to calculate a temporal correction value from the count-disparity signal as a number of clock cycles of the clock signal between successive samples of the input signal at a sample rate based on the input sample rate; a resampled clock generator configured to generate one or more resampled clock signals from the temporal correction value, wherein sample rates of the one or more resampled clock signals are based on the input sample rate; and a second sigma delta loop configured to generate the output signal from the one or more resampled clock signals and the input signal, wherein the second sigma delta loop generates an incremental output signal on every cycle of a resampled clock signal, out of the one or more resampled clock signals, based on a calculated difference between successive samples of the input signal, and wherein the incremental output signal is added to a previous sample of the output signal to generate a current sample of the output signal at the output sample rate.