mhurhangee/ep-ind-claims huggingface dataset:
A process of preparing a Grignard reagent comprising creating a fluid of magnesium particulates and a solvent in a reactor; and contacting the magnesium particulates with at least one organohalide to form the Grignard reagent; wherein the fluid comprises the solvent flowing against gravity through a bed of magnesium particulates ranging in size from 10 to 1000 μm when added, with a flow rate ranging from 0.1 to 0.3 cm/s to create a fluidized bed of magnesium particulates in the solvent.
Refrigeration appliance, in particular domestic refrigeration appliance, with a storage chamber delimited by an internal container, a built-in part (11; 12; 34) anchored on a wall (6; 7) of the internal container and at least one expanding rivet connected to the built-in part (11; 12; 34) and retained in a cup tightened in the wall (6; 7), which expanding rivet comprises a tubular housing part with a shank and a root section which can be inserted into the cup and a plunger which can be inserted into the housing part to spread the root section, characterised in that a resilient vibration-damping element abutting the built-in part is arranged at an end of the shank facing away from the root section.
Automation device having a slave unit and having a master module which is connected via a bus to an IM module of the slave unit having a plurality of slave modules (5a,...) which can be parameterized using a message (Pr2, Pr3) transmitted to the IM module by the master module, the message (Pr2, Pr3) having a data area (Bb, Bc,...) for each slave module (5b,...) for its parameterization, characterized in that at least one of the slave modules (5e, 5f) has a plurality of default data records (11, D1,...), a data record index respectively being provided for each of these default data records (11, D1...), and in that the data record index stored in the data area (Bb, Bc,...) of the message (Pr2, Pr3) is used by the at least one slave module (5e, 5f) to access the corresponding default data record (11, D1,...) stored in this at least one slave module (5e, 5f) for the purpose of its parameterization.
A method of producing particulate alkali metal niobate represented by the following formula: MNbO 3 wherein M represents one element selected from the group consisting of Li, Na, K, Rb and Cs, the particulate alkali metal niobate having a substantially rectangular cuboid shape, the method comprising the steps of: (a) mixing a niobium-containing solution with an alkaline solution having a concentration of 0.1 to 30 mol/L of an alkali metal hydroxide of the following formula: MOH wherein M is the same as in formula, to prepare a suspension; (b) subjecting the suspension to a constant temperature between 80°C and 150°C for 12 to 48 hours for encouraging particles to grow into a substantially rectangular cuboid shape; (c) performing solvothermal reaction of the suspension at between 150°C and 300°C for 1 to 12 hours; and (d) separating the particulate alkali metal niobate from a reaction mixture. wherein M represents one element selected from the group consisting of Li, Na, K, Rb and Cs, the particulate alkali metal niobate having a substantially rectangular cuboid shape, the method comprising the steps of: (a) mixing a niobium-containing solution with an alkaline solution having a concentration of 0.1 to 30 mol/L of an alkali metal hydroxide of the following formula: MOH wherein M is the same as in formula, to prepare a suspension; (b) subjecting the suspension to a constant temperature between 80°C and 150°C for 12 to 48 hours for encouraging particles to grow into a substantially rectangular cuboid shape; (c) performing solvothermal reaction of the suspension at between 150°C and 300°C for 1 to 12 hours; and (d) separating the particulate alkali metal niobate from a reaction mixture. (a) mixing a niobium-containing solution with an alkaline solution having a concentration of 0.1 to 30 mol/L of an alkali metal hydroxide of the following formula: MOH wherein M is the same as in formula, to prepare a suspension; (b) subjecting the suspension to a constant temperature between 80°C and 150°C for 12 to 48 hours for encouraging particles to grow into a substantially rectangular cuboid shape; (c) performing solvothermal reaction of the suspension at between 150°C and 300°C for 1 to 12 hours; and (d) separating the particulate alkali metal niobate from a reaction mixture.
A camera to which a lens unit including a focus lens is attachable, the camera comprising: a signal generation means for generating a vertical synchronizing signal that is synchronized with a timing of exposure of the imaging means and outputting the generated vertical synchronizing signal; an imaging means for converting light into an electrical signal; a control means for generating a clock signal and controlling data communication with the lens unit based on the clock signal; a first terminal for sending the clock signal generated by the control means to a detachably attached lens unit; and a second terminal for communicating data with the lens unit, characterized in that when a wobbling operation of the focus lens is executed, the control means is configured to output the clock signal based on the vertical synchronizing signal and perform communication of predetermined bytes of data including data relating to driving of the focus lens based on the clock signal in each frame, wherein the control means is configured to notify timing synchronous with the exposure of the imaging means in each frame, using the clock signal via the first terminal by controlling a signal level of the first terminal to a predetermined level when the communication of the predetermined bytes of data in a frame ends, and then changing the signal level when the communication of the predetermined bytes of data in the subsequent frame starts. a signal generation means for generating a vertical synchronizing signal that is synchronized with a timing of exposure of the imaging means and outputting the generated vertical synchronizing signal; an imaging means for converting light into an electrical signal; a control means for generating a clock signal and controlling data communication with the lens unit based on the clock signal; a first terminal for sending the clock signal generated by the control means to a detachably attached lens unit; and a second terminal for communicating data with the lens unit, characterized in that when a wobbling operation of the focus lens is executed, the control means is configured to output the clock signal based on the vertical synchronizing signal and perform communication of predetermined bytes of data including data relating to driving of the focus lens based on the clock signal in each frame, wherein the control means is configured to notify timing synchronous with the exposure of the imaging means in each frame, using the clock signal via the first terminal by controlling a signal level of the first terminal to a predetermined level when the communication of the predetermined bytes of data in a frame ends, and then changing the signal level when the communication of the predetermined bytes of data in the subsequent frame starts.
Machine tool comprising a machine frame, a workpiece spindle unit arranged on the machine frame and having a workpiece spindle and a workpiece receptacle rotatingly drivable about a workpiece spindle axis by a workpiece spindle drive, said workpiece receptacle being rotatable about the workpiece spindle axis as a C axis in a controlled manner, a tool carrier unit arranged on the machine frame and having a tool turret comprising a turret head rotatable about a turret head axis relative to the turret housing and a tool carrier base bearing the turret housing and being supported on the machine frame, at least one movement system (40, 80, 120) for movement of the workpiece receptacle and a tool located in an operative position relative to one another in a controlled manner, wherein the turret housing and the workpiece receptacle are movable relative to one another in the direction of a Z axis parallel to the workpiece spindle axis and an X axis extending transversely to the Z axis and wherein the turret housing is held on the tool carrier base by a B movement system and is rotatable relative to the tool carrier base about a B axis extending transversely to the Z axis and transversely to the X axis by said B movement system, and a machine control for controlling the movements of the tool located in the operative position relative to a workpiece accommodated in the workpiece receptacle, characterized in that the machine control generates a movement of the tool in the Y direction by way of interpolation between a position-controlled movement of the tool located in the operative position in the X direction and/or the Z direction, accompanied by a position-controlled rotation of the turret head about the turret head axis, and that during the generation of the movement in the Y direction the turret head axis is aligned parallel to a tool axis (X, Z) of the tool located in the operative position.
A voltage source converter (30,130,330) comprising first and second DC terminals (32,34) for connection to a DC network, the voltage source converter (30,130,330) further comprising an AC phase terminal for connection to a phase of an AC network, the voltage source converter (30,130,330) including a limb connected between the first and second DC terminals (32,34), the limb including first and second sub-limbs (40,42) connected between the first and second DC terminals (32,34), each sub-limb (40,42) including a phase element, each phase element including a plurality of switching elements and at least one AC terminal, the or each AC terminal of each phase element operably connected to the AC phase terminal such that an AC voltage waveform at the AC phase terminal is the vector sum of the AC voltage waveforms at the AC terminals of the phase elements of the first and second sub-limbs (40,42), the plurality of switching elements of each phase element configured to be switchable to selectively interconnect a DC side voltage (84,94,96) at a DC side of the phase element and an AC side voltage at an AC side of the phase element, each sub-limb (40,42) further including at least one energy storage device connected at the DC side of the phase element, wherein the voltage source converter (30,130,330) further includes a controller programmed to control the switching of the switching elements of the phase elements so as to control each phase element to alternately switch between: a first operating mode to control the configuration of an AC voltage waveform at the or each corresponding AC terminal to have a positive phase shift relative to the AC voltage waveform at the AC phase terminal; and a second operating mode to control the configuration of an AC voltage waveform at the or each corresponding AC terminal to have a negative phase shift relative to the AC voltage waveform at the AC phase terminal, wherein the controller is programmed to control the switching of the switching elements of the phase elements so that, in use, while each phase element is controlled to switch between the first and second operating modes, one of the phase elements of the first and second sub-limbs (40,42) is controlled to be in one of the first and second operating modes while the other of the phase elements of the first and second sub-limbs (40,42) is controlled to be in the other of the first and second operating modes.
Manufacturing arrangement for a fuel cell stack comprising at least - a first alignment station having a first alignment structure for receiving a bipolar plate and a second alignment structure for arranging a membrane electrode assembly at one side of the bipolar plate, preferably on top of the bipolar plate, in a predefined orientation for aligning the bipolar plate and the membrane electrode assembly, whereby a pre-assembled fuel cell unit is provided; - a fastening station for fastening the membrane electrode assembly to the bipolar plate, whereby an assembled fuel cell unit is provided; and - a second alignment station having at least one third alignment structure for aligning the assembled fuel cell units for providing a fuel cell stack. - a first alignment station having a first alignment structure for receiving a bipolar plate and a second alignment structure for arranging a membrane electrode assembly at one side of the bipolar plate, preferably on top of the bipolar plate, in a predefined orientation for aligning the bipolar plate and the membrane electrode assembly, whereby a pre-assembled fuel cell unit is provided; - a fastening station for fastening the membrane electrode assembly to the bipolar plate, whereby an assembled fuel cell unit is provided; and - a second alignment station having at least one third alignment structure for aligning the assembled fuel cell units for providing a fuel cell stack.
An orthopedic insole capable of being inserted into a shoe or the like for relieving and/or treating skin disorders and/or calluses and/or metatarsal pain, comprising, on the lower face thereof, at least one recess extending from the inner edge to the outer edge of the sole, at the metatarsal heads, and wherein at least one corrective element (1, 2, 3) is removably placed, characterized in that said corrective element is made of a more rigid and denser material than the material of the sole and is capable of providing a so-called internal retro-capital support, on the back portion of the head of the first metatarsus, and/or a so-called median retro-capital support, on the back portion of the second and/or third and/or fourth metatarsal head(s), and/or a so-called external retro-capital support, on the back portion of the fifth metatarsal head.
A reagent kit for human soluble LOX-1 detection by sandwich ELISA including monoclonal antibodies produced by the hybridoma "Mouse-Mouse hybridoma sLOX-1 1A7" deposited under deposit number FERM. BP-10645, and monoclonal antibodies produced by the hybridoma "Mouse-Mouse hybridoma sLOX-1 6B11" deposited under deposit number FERM. BP-10646.
A brake control system, comprising: an inertial sensor coupled to an aircraft configured to measure a yaw rate of the aircraft; a brake control unit, wherein the BCU receives the yaw rate from the inertial sensor, and wherein the BCU is configured to control a brake control device based on the yaw rate; characterised in that the BCU is configured to calculate a pressure correction using the yaw rate and equation Δ ⁢ P _ j = ± Δ F d _ x ∗ R rolling x − I wh _ x ∗ ω ̇ max / min A ⋅ k ⋅ n ⋅ R b ⋅ μ cc, wherein Δ P_j is a brake pressure correction, Δ F d_x is a brake force correction, R rolling x is a rolling radius of a wheel, I wh_x is a rotational moment of inertia of the wheel, ω̇ max / min is one of the maximum allowable deceleration of the wheel and a minimum allowable deceleration of the wheel, A is a piston area, k is a number of friction disks, n is a number of brake stacks, R b is a brake force torque arm, and μ cc is a friction coefficient of the friction disks. an inertial sensor coupled to an aircraft configured to measure a yaw rate of the aircraft; a brake control unit, wherein the BCU receives the yaw rate from the inertial sensor, and wherein the BCU is configured to control a brake control device based on the yaw rate; characterised in that the BCU is configured to calculate a pressure correction using the yaw rate and equation Δ ⁢ P _ j = ± Δ F d _ x ∗ R rolling x − I wh _ x ∗ ω ̇ max / min A ⋅ k ⋅ n ⋅ R b ⋅ μ cc, wherein Δ P_j is a brake pressure correction, Δ F d_x is a brake force correction, R rolling x is a rolling radius of a wheel, I wh_x is a rotational moment of inertia of the wheel, ω̇ max / min is one of the maximum allowable deceleration of the wheel and a minimum allowable deceleration of the wheel, A is a piston area, k is a number of friction disks, n is a number of brake stacks, R b is a brake force torque arm, and μ cc is a friction coefficient of the friction disks.
An electronic device comprising: a device enclosure having a plurality of openings; a plurality of electrical contacts, each electrical contact located in a corresponding one of the plurality of openings in the device enclosure, such that a gap exists between an outside edge of each electrical contact and an inside edge of the corresponding opening in the device enclosure, and each electrical contact having a contacting surface for mating with a contact on a corresponding device when the electronic device and corresponding device are mated; and an insulator supporting the plurality of electrical contacts, the insulator including a plurality of rings extending from a first front surface of the insulator, each ring between one of the plurality of electrical contacts and the device enclosure and filling the gap between the outside edge of the electrical contact and the inside edge of the corresponding opening in the device enclosure. a device enclosure having a plurality of openings; a plurality of electrical contacts, each electrical contact located in a corresponding one of the plurality of openings in the device enclosure, such that a gap exists between an outside edge of each electrical contact and an inside edge of the corresponding opening in the device enclosure, and each electrical contact having a contacting surface for mating with a contact on a corresponding device when the electronic device and corresponding device are mated; and an insulator supporting the plurality of electrical contacts, the insulator including a plurality of rings extending from a first front surface of the insulator, each ring between one of the plurality of electrical contacts and the device enclosure and filling the gap between the outside edge of the electrical contact and the inside edge of the corresponding opening in the device enclosure.
An in vitro method of determining breast cancer progression or breast cancer relapse in a subject, the method comprising measuring the levels of hematopoietic progenitor cells (HPCs) and endothelial progenitor cells (EPCs) in blood samples obtained from said subject between one week and four months apart, wherein said HPCs are VEGFR1 + CD45 + CD34 + and said EPCs are VEGFR2 + CD133 + CD45 dim, and determining whether there is a surge in the number of HPCs followed by a surge in the number of EPCs, wherein the surge is an increase of at least 10% in the level of HPCs or EPCs, and wherein a surge in the number of HPCs followed by a surge in the number of EPCs indicates an increased risk of progression or relapse of breast cancer in said subject.
A process for producing a contact lens, comprising the steps of: (a) obtaining a contact lens precursor which is a coated contact lens which comprises a lens bulk material completely covered with an anchor layer of a polyanionic polymer which comprises at least 60% by mole of repeating units of at least one carboxyl-containing vinylic monomer; and (b) heating, in the presence of at least one first polyaziridine which has a number average molecular weight of about 2000 Dalton or less and at least two aziridine groups, the contact lens precursor in a first aqueous solution which comprises a thermally-crosslinkable hydrophilic polymeric material which has thermally-crosslinkable groups, to and at a temperature from about 30°C to about 140°C for a period of time sufficient to obtain the contact lens, wherein the contact lens comprise (i) a crosslink anchor layer thereon and an outer surface hydrogel layer which is covalently attached to the crosslinked anchor layer, wherein the crosslinked anchor layer is obtained crosslinking the polyanionic polymer in the anchor layer via crosslinkers derived from said at least one polyaziridine in coupling reaction between at least two pair of aziridine and carboxyl groups, wherein the outer surface hydrogel layer is formed by crosslinking the thermally-crosslinked hydrophilic polymeric material, wherein the contact lens has a polyquaternium-1 uptake ("PU pz ") of about 0.6 μg/lens or less. (a) obtaining a contact lens precursor which is a coated contact lens which comprises a lens bulk material completely covered with an anchor layer of a polyanionic polymer which comprises at least 60% by mole of repeating units of at least one carboxyl-containing vinylic monomer; and (b) heating, in the presence of at least one first polyaziridine which has a number average molecular weight of about 2000 Dalton or less and at least two aziridine groups, the contact lens precursor in a first aqueous solution which comprises a thermally-crosslinkable hydrophilic polymeric material which has thermally-crosslinkable groups, to and at a temperature from about 30°C to about 140°C for a period of time sufficient to obtain the contact lens,
A connector assembly comprising: a connector formed so that an external connector is inserted therein through a connector insertion portion formed in a casing; and a cover part coupled to the connector while surrounding an outer peripheral surface of the connector, and configured to seal a gap between the connector and the connector insertion portion, characterized in that the cover part comprises at least one rib having an outer peripheral surface with a shape conforming to the connector insertion portion, and protruding from an outer peripheral surface thereof at a predetermined interval, wherein the rib is formed in a shape conforming to a rib groove formed near the connector insertion portion of the casing at a position corresponding to the rib groove so as to be accommodated in the rib groove. a connector formed so that an external connector is inserted therein through a connector insertion portion formed in a casing; and a cover part coupled to the connector while surrounding an outer peripheral surface of the connector, and configured to seal a gap between the connector and the connector insertion portion, characterized in that the cover part comprises at least one rib having an outer peripheral surface with a shape conforming to the connector insertion portion, and protruding from an outer peripheral surface thereof at a predetermined interval, wherein the rib is formed in a shape conforming to a rib groove formed near the connector insertion portion of the casing at a position corresponding to the rib groove so as to be accommodated in the rib groove.
A positioning apparatus, comprising a body, wherein the body has a positioning slot (100, 200) used to accommodate a camera (300, 400), elastic elements are separately fastened to two side walls (110, 120) adjacent to the positioning slot (100, 200), the positioning apparatus further comprises a cover plate, and the cover plate is fastened to the body; and when the camera (300, 400) is installed in the positioning slot (100, 200), two elastic elements separately press against a housing of the camera (300, 400), and the cover plate presses against an end face of the camera (300, 400), wherein a positioning bar is disposed on the side wall (130, 140) that is in the positioning slot (100, 200) and that is opposite to each elastic element, and when the camera (300, 400) is installed in the positioning slot (100, 200), the elastic element and a corresponding positioning bar separately press against a side wall opposite to the camera. when the camera (300, 400) is installed in the positioning slot (100, 200), two elastic elements separately press against a housing of the camera (300, 400), and the cover plate presses against an end face of the camera (300, 400), wherein a positioning bar is disposed on the side wall (130, 140) that is in the positioning slot (100, 200) and that is opposite to each elastic element, and when the camera (300, 400) is installed in the positioning slot (100, 200), the elastic element and a corresponding positioning bar separately press against a side wall opposite to the camera.