mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: at least two resistance change memory, RCM, cells (100, 200, 300, 600, 700, 800, 900); a pair of electrical contacts (601, 701, 801, 901) electrically coupled to each of the at least two RCM cells (100, 200, 300, 600, 700, 800, 900) wherein one of the electrical contacts (601, 701, 801, 901) of the pair of electrical contacts is an anode comprising an oxidizable metallic material and the other of the electrical contacts (601, 701, 801, 901) of the pair of electrical contacts is a cathode comprising an inert material; and a memory cell material (609, 815, 909) disposed between each pair of electrical contacts (601, 701, 801, 901) coupled to each of the at least two RCM cells (100, 200, 300, 600, 700, 800, 900) such that the at least two RCM cells share a continuous memory cell material, the memory cell material (609, 815, 909) capable of forming a conductive pathway (611, 613, 615, 617, 821, 823, 825, 827, 829, 831, 921, 923, 925, 927, 929, 931) by voltage-driven ionic migration and electrochemical deposition of metal ions within the memory cell material between an anode and a cathode on different cells to allow a cross-coupled conductive pathway (611, 613, 615, 617, 821, 823, 825, 827, 829, 831, 921, 923, 925, 927, 929, 931) between the at least two RCM cells (100, 200, 300, 600, 700, 800, 900), wherein the memory cell material is a chalcogenide. at least two resistance change memory, RCM, cells (100, 200, 300, 600, 700, 800, 900); a pair of electrical contacts (601, 701, 801, 901) electrically coupled to each of the at least two RCM cells (100, 200, 300, 600, 700, 800, 900) wherein one of the electrical contacts (601, 701, 801, 901) of the pair of electrical contacts is an anode comprising an oxidizable metallic material and the other of the electrical contacts (601, 701, 801, 901) of the pair of electrical contacts is a cathode comprising an inert material; and a memory cell material (609, 815, 909) disposed between each pair of electrical contacts (601, 701, 801, 901) coupled to each of the at least two RCM cells (100, 200, 300, 600, 700, 800, 900) such that the at least two RCM cells share a continuous memory cell material, the memory cell material (609, 815, 909) capable of forming a conductive pathway (611, 613, 615, 617, 821, 823, 825, 827, 829, 831, 921, 923, 925, 927, 929, 931) by voltage-driven ionic migration and electrochemical deposition of metal ions within the memory cell material between an anode and a cathode on different cells to allow a cross-coupled conductive pathway (611, 613, 615, 617, 821, 823, 825, 827, 829, 831, 921, 923, 925, 927, 929, 931) between the at least two RCM cells (100, 200, 300, 600, 700, 800, 900), wherein the memory cell material is a chalcogenide.
A method for manufacturing a solid oxide fuel cell in which multiple electricity generating elements, including functional layers of a fuel electrode layer, an electrolyte layer, and an air electrode layer are formed on a porous support body, and the electricity generating elements are connected using an interconnector, the method comprising steps of: a support body forming step for forming the porous support body; a film deposition step (S3-S9) for forming, in sequence, the fuel electrode layer and the electrolyte layer on the porous support body; an outermost layer deposition step for forming the air electrode layer on the two functional layers formed in the film deposition step (S3-S9), in which dots of slurry are formed by continuously jetting liquid droplets of the slurry for making the air electrode layer, and the air electrode layer is formed by the agglomeration of the dots and is thicker than the fuel electrode layer; and a sintering step for heating and sintering the functional layers; wherein in the air electrode layer formed by the air electrode layer deposition step, traces of the agglomerated dots are left, and ring-shaped cracks are formed around each of the dot traces by the sintering step. a support body forming step for forming the porous support body; a film deposition step (S3-S9) for forming, in sequence, the fuel electrode layer and the electrolyte layer on the porous support body; an outermost layer deposition step for forming the air electrode layer on the two functional layers formed in the film deposition step (S3-S9), in which dots of slurry are formed by continuously jetting liquid droplets of the slurry for making the air electrode layer, and the air electrode layer is formed by the agglomeration of the dots and is thicker than the fuel electrode layer; and a sintering step for heating and sintering the functional layers; wherein in the air electrode layer formed by the air electrode layer deposition step, traces of the agglomerated dots are left, and ring-shaped cracks are formed around each of the dot traces by the sintering step.
A method for producing a Wyeth or Western Reserve strain vaccinia virus comprising: (a) infecting HeLa cells adhered to a surface with a vaccinia virus by contacting the HeLa cells with vaccinia virus at a multiplicity of infection (m.o.i.) of between 0.01 and 0.05 plaque forming units (pfu)/cell; (b) culturing the infected cells in an infection medium comprising 0% - 10% serum and having a pH, of about 7.2, or about 7.3 or about 7.4 for a period of 40-80 hours at temperature between 36 °C and 37.5 °C; and (c) harvesting vaccinia virus from the culture, whereby at least 50 pfu of vaccinia virus per HeLa cell is produced, wherein the HeLa cells are cultivated in one or more roller bottles or in a bioreactor comprising a cumulative culture area of at least 168,000 cm 2. (a) infecting HeLa cells adhered to a surface with a vaccinia virus by contacting the HeLa cells with vaccinia virus at a multiplicity of infection (m.o.i.) of between 0.01 and 0.05 plaque forming units (pfu)/cell; (b) culturing the infected cells in an infection medium comprising 0% - 10% serum and having a pH, of about 7.2, or about 7.3 or about 7.4 for a period of 40-80 hours at temperature between 36 °C and 37.5 °C; and (c) harvesting vaccinia virus from the culture,
A shock absorbing bumper which ensures that the force of impact is absorbed with a damping element (10.1.2) upon contact to a front part (1.4) in case of rear-end collisions with transportation vehicles that carry goods or passengers, containing: • at least one connector slot (10.2) where a damping element assembly (10.1) is placed and which acts as a retainer to prevent said assembly to be dislocated due to force of impact during an accident, • a connection rod (10.3) which is in contact with said connection slot (10.2), transfers the force received upon impact to said damping element assembly (10.1), connects said front part (10.4) to the vehicle frame and positions the front part (10.4) in the desired angle in order for the shock of impact to be absorbed, characterized in that the damping element assembly (10.1) consists of the damping element (10.1.2) and a coating element (10.1.1) that covers the surface of the damping element (10.1.2) in order to prevent diffraction of said damping element (10.1.2) due to force of impact at the moment of accident. • at least one connector slot (10.2) where a damping element assembly (10.1) is placed and which acts as a retainer to prevent said assembly to be dislocated due to force of impact during an accident, • a connection rod (10.3) which is in contact with said connection slot (10.2), transfers the force received upon impact to said damping element assembly (10.1), connects said front part (10.4) to the vehicle frame and positions the front part (10.4) in the desired angle in order for the shock of impact to be absorbed,
A network system for identifying a cable connection, comprising: a management server comprising a system-management software; a server device connected to the management server, wherein the server device comprises a baseboard management controller configured to communicate with the system-management software of the management server, wherein the baseboard management controller receives an intelligent platform management interface original equipment manufacturer, IPMI OEM, command comprising a CABLE ID; and at least one storage device, wherein the storage device comprises at least one cable port configured to receive a storage cable that connects the storage device to the server device, wherein the cable port comprises a non-volatile memory, an indicator light, and a I 2 C bus, wherein the non-volatile memory detects a CABLE ID of a storage cable inserted into the at least one storage device, and the network system determines whether the CABLE ID of the storage cable matches the received CABLE ID, for actuating at least one indicator light at the at least one storage device or not. a management server comprising a system-management software; a server device connected to the management server, wherein the server device comprises a baseboard management controller configured to communicate with the system-management software of the management server, wherein the baseboard management controller receives an intelligent platform management interface original equipment manufacturer, IPMI OEM, command comprising a CABLE ID; and at least one storage device, wherein the storage device comprises at least one cable port configured to receive a storage cable that connects the storage device to the server device, wherein the cable port comprises a non-volatile memory, an indicator light, and a I 2 C bus, wherein the non-volatile memory detects a CABLE ID of a storage cable inserted into the at least one storage device, and the network system determines whether the CABLE ID of the storage cable matches the received CABLE ID, for actuating at least one indicator light at the at least one storage device or not.
Connection adapter having an upper housing part which is mounted on a lower housing part such that it can move relative to the lower housing part, and accommodates adapter contacts which can be moved together with the upper housing part, and having a protective plate which has passage openings for the adapter contacts and is mounted such that it can be moved relative to the adapter contacts in such a way that the adapter contacts are recessed in the upper housing part such that they are concealed by the protective plate in an inoperative position in which the connection adapter can be disconnected from a corresponding device connection terminal, and projects through the passage openings in the protective plate into clamping points of the device connection terminal in a clamping position in which the connection adapter can be mounted at least partly on a corresponding device connection terminal, characterized in that the protective plate is mounted in the lower housing part and at least one plug contact arrangement (26a, 26b) is integrated in the upper housing part, wherein each plug contact arrangement (26a, 26b) has a group of connection contacts (35a, 35b) which are electrically conductively connected to associated adapter contacts.
A method for operating a hardware component of a measurement, control, or regulating system having a processor, an FPGA, and a plurality of I/O channels, the I/O channels being connected to the FPGA, and the FPGA being connected to the processor by means of a communications interface, comprising creating a software program, loading the software program, and executing the software program, the loading of the software comprising loading a first application into the FPGA and loading a second application into the processor, characterized in that the first application is transferred to the FPGA by executing the second application, wherein creating the software program comprises the following steps Selecting a first subset of the I/O channels for operating by means of the FPGA, Creating a first application for executing on the FPGA, Selecting a second subset of the I/O channels for operating by means of the processor, Creating the second application for executing on the processor, wherein the step of creating the first application comprises creating code for connecting the second subset of the I/O channels to the communications interface, and additionally comprising the step Creating an application model, wherein the step of creating the first application comprises model-based automatic creating of code, wherein the step of creating code for connecting the second subset of the I/O channels to the communications interface comprises automatically creating code for connecting I/O channels that are part of the second subset of I/O channels, wherein the step of creating the first application comprises providing identification information of I/O channels of the first subset, wherein the step of creating the second application comprises model-based, automatic creating of code, wherein the step of creating the second application comprises receiving identification information of I/O channels of the first subset.
Dental implant formed of an anchoring body anchoring body defined between an apical end (E a) and a cervical end (E c), which anchoring body is a body of first predetermined length L 1 and has on the outer surface thereof and along the whole of said first predetermined length at least one thread, said anchoring body comprising on at least one coronal portion of the implant, a part of said at least one thread having a nominal diameter d n, which implant is characterised in that said nominal diameter d n is greater than an outer diameter d e of said anchoring body on said coronal portion in a first d n /d e ratio between 2.00 and 4.00, preferably between 2.00 and 3.00.
A non-woven fabric base material for a lithium ion secondary battery separator in which the content of a polyethylene terephthalate fiber is 70 mass% or more, wherein the non-woven fabric base material comprises a polyethylene terephthalate binder fiber and a crystallized polyethylene terephthalate fiber, wherein the polyethylene terephthalate binder fiber has an average fiber diameter of 0.1 to 14.0 μm, characterized in that the polyethylene terephthalate binder fiber has a fiber length of 0.7 to 2.3 mm and the content of the polyethylene terephthalate binder fiber is 21 to 60 mass%.
An antenna configuration (10, 10', 110, 210, 310, 410) for steering of a transmit and/or receive electromagnetic signal beam over wide scan angles within a pre-determined coverage area of the antenna (10, 10', 110, 210, 310, 410), said antenna configuration comprising: - a support structure (20, 20', 420) for mounting on a platform and defining a stationary side of the antenna configuration (10, 10', 110, 210, 310, 410); - a transmitting and/or receiving signal feed chain mounting on the support structure (20, 20', 420); - a reflector assembly movably mounting on the support structure (20, 20', 420) about first and second axes of rotation, the first and second axes of rotation being generally perpendicular to one another; and - a first actuator rotating the reflector assembly about the first axis of rotation, and a second actuator rotating a main reflector of the reflector assembly about the second axis of rotation, and being characterized by the first and second actuators being fixedly mounted on the support structure (20, 20', 420). - a support structure (20, 20', 420) for mounting on a platform and defining a stationary side of the antenna configuration (10, 10', 110, 210, 310, 410); - a transmitting and/or receiving signal feed chain mounting on the support structure (20, 20', 420); - a reflector assembly movably mounting on the support structure (20, 20', 420) about first and second axes of rotation, the first and second axes of rotation being generally perpendicular to one another; and - a first actuator rotating the reflector assembly about the first axis of rotation, and a second actuator rotating a main reflector of the reflector assembly about the second axis of rotation,
A hub assembly for a pen injection device, comprising: a hub for connecting to the pen injection device; a needle received by said hub; and a compressible member connected to said hub and compressible between a first position that entirely covers and prevents visibility of said needle and a second position that exposes the needle for an injection, said compressible member being formed as a one-piece member having an opening extending from a first end to a second end thereof through which said needle passes when said compressible member is in said second position, characterized in that said compressible member is made of a foam material, changes color when contacted by medicament during priming of said needle and has an outer diameter small than an outer diameter of said hub when said compressible member is in said first position. a hub for connecting to the pen injection device; a needle received by said hub; and a compressible member connected to said hub and compressible between a first position that entirely covers and prevents visibility of said needle and a second position that exposes the needle for an injection, said compressible member being formed as a one-piece member having an opening extending from a first end to a second end thereof through which said needle passes when said compressible member is in said second position, characterized in that said compressible member is made of a foam material, changes color when contacted by medicament during priming of said needle and has an outer diameter small than an outer diameter of said hub when said compressible member is in said first position.
A method for representing a color image as binary data, comprising the steps of: receiving a frame of color image data by utilizing one or more CPUs, said color image data comprising a plurality of input pixel values corresponding to a plurality of pixel positions in an image, wherein said input pixel values are represented as N-bit values, and wherein N> 1; defining a plurality of color ranges by utilizing said one or more CPUs; assigning each of said pixel positions to one of said color ranges based on the input pixel value for that pixel position by utilizing said one or more CPUs; defining a plurality of spatial binary patterns of pixel positions by utilizing said one or more CPUs, wherein each of said spatial binary patterns is different; assigning each of said plurality of color ranges to one of said spatial binary patterns by utilizing said one or more CPUs; assigning to each of said pixel positions an output pixel value representative of said one of said spatial binary patterns assigned to said one of said color ranges assigned to that pixel position by utilizing said one or more CPUs; saving said output pixel values to a file as data; reading the data stored in said file; and rendering an image using said data. receiving a frame of color image data by utilizing one or more CPUs, said color image data comprising a plurality of input pixel values corresponding to a plurality of pixel positions in an image, wherein said input pixel values are represented as N-bit values, and wherein N> 1; defining a plurality of color ranges by utilizing said one or more CPUs; assigning each of said pixel positions to one of said color ranges based on the input pixel value for that pixel position by utilizing said one or more CPUs; defining a plurality of spatial binary patterns of pixel positions by utilizing said one or more CPUs, wherein each of said spatial binary patterns is different; assigning each of said plurality of color ranges to one of said spatial binary patterns by utilizing said one or more CPUs; assigning to each of said pixel positions an output pixel value representative of said one of said spatial binary patterns assigned to said one of said color ranges assigned to that pixel position by utilizing said one or more CPUs; saving said output pixel values to a file as data; reading the data stored in said file; and rendering an image using said data.
A reductant delivery unit for selective catalytic reduction after-treatment for vehicles, the reductant delivery unit comprising: a solenoid fluid injector constructed and arranged to be associated with an exhaust gas flow path upstream of a SCR catalytic converter, the fluid injector having a fluid inlet and a fluid outlet, the fluid inlet being constructed and arranged to receive a source of urea solution and the fluid outlet being constructed and arranged to communicate directly with the exhaust flow path so as to control injection of urea solution into the exhaust gas flow path, and an interface constructed and arranged to couple the fluid injector to the gas flow path, the interface defining a thermal barrier constructed and arranged to decouple a body of the injector from exposure to heat in the exhaust gas flow path, the reductant delivery unit being in combination with a controller, the solenoid fluid injector having a coil, characterized in that the controller is constructed and arranged to determine whether urea solution in the injector is frozen and if the urea solution is determined to be frozen, the controller is constructed and arranged to actuate the coil thereby delivering electrically generated heat to the fluid injector to melt the urea solution wherein the controller comprises diagnostic means to analyze a voltage or current signal to the injector during the melting process. a solenoid fluid injector constructed and arranged to be associated with an exhaust gas flow path upstream of a SCR catalytic converter, the fluid injector having a fluid inlet and a fluid outlet, the fluid inlet being constructed and arranged to receive a source of urea solution and the fluid outlet being constructed and arranged to communicate directly with the exhaust flow path so as to control injection of urea solution into the exhaust gas flow path, and an interface constructed and arranged to couple the fluid injector to the gas flow path, the interface defining a thermal barrier constructed and arranged to decouple a body of the injector from exposure to heat in the exhaust gas flow path,
A stopper with an olive for engagement as a force fit into a container opening of a container, which olive is formed on a head section of the stopper, wherein a slider is arranged in the head section in a recess leading centrally through the head section and is guided in lateral grooves such that it may be advanced beyond the lateral edge of the head section as a handle for removal of the stopper from the container, characterised in that fastened to the top of the head section there is a tensional band, which connects the two longitudinal sides of the recess and covers the slider with a small clearance.