mhurhangee/ep-ind-claims huggingface dataset:
An axial flow rotary pump suitable for implantation into the human heart or vascular system, said pump having (a) an elongate tubular casing defining an inlet for blood at one end of the casing, an outlet for blood longitudinally spaced from said inlet at the other end of the casing, and a substantially axial blood flow path from said inlet to said outlet, said casing including an electric motor stator, (b) an elongate tubular rotatable element arranged to fit within said casing with clearance between an outer surface of said tubular rotatable element and an inner surface of said casing, said tubular rotatable element comprising an electric motor rotor portion arranged to be driven by said electric motor stator, there being a primary substantially axial blood flow path along the inside of the tubular rotatable element, and (c) a rotary impeller in a pumping chamber for impelling blood along said primary flow path, wherein the motor rotor portion and the pumping chamber are axially offset, the pumping chamber has an internal diameter greater than the inner diameter of the tubular rotatable element, characterized in that the casing has a substantially uniform outer diameter along the length thereof. (a) an elongate tubular casing defining an inlet for blood at one end of the casing, an outlet for blood longitudinally spaced from said inlet at the other end of the casing, and a substantially axial blood flow path from said inlet to said outlet, said casing including an electric motor stator, (b) an elongate tubular rotatable element arranged to fit within said casing with clearance between an outer surface of said tubular rotatable element and an inner surface of said casing, said tubular rotatable element comprising an electric motor rotor portion arranged to be driven by said electric motor stator, there being a primary substantially axial blood flow path along the inside of the tubular rotatable element, and (c) a rotary impeller in a pumping chamber for impelling blood along said primary flow path,
A connector of an electrical connection arrangement for aluminum stranded conductors, having a pressing area made of aluminum, which is configured to accommodate strands of the stranded conductor, wherein the pressing area of the connector is connected electrically conductively to a contact pin which can be inserted into a corresponding borehole of a socket, wherein an electrically conductive ring is arranged on the contact pin of the connector with elastically deformable structures projecting outwards beyond the diameter of the contact pin, which structures consist of a material or are coated with a material, the hardness of which suffices to break up or at least partially scrape off an aluminum oxide layer or a corrosion protection layer on the surface of the borehole, characterized in that the structures of the electrically conductive ring (106, 206) run obliquely or helically to a longitudinal axis of the contact pin or the borehole at least in sections.
Autonomous agricultural system having at least one mobile drive machine operating in a partially or fully autonomous manner, having an apparatus for specifying a boundary for a permissible working area of the drive machine, having a device for determining a relative or absolute position of the drive machine, and having an actuatable emergency switch-off means which is assigned to the drive machine and is designed to deactivate the work machine on the basis of its position, characterized by an emergency switch-off system having a radio station with an adjustable radio range, wherein the radio station can be/is centrally placed in the working area, and a radio module which is arranged on the work machine and communicates with the radio station, wherein the radio module is connected to the emergency switch-off means and actuates the emergency switch-off means if the communication between the radio module and the radio station breaks down.
A compound represented by the following formula A as an indazole derivative: wherein R 1 is nitro or Y-carbonyl, wherein Y is hydroxy, C 1-30 alkoxy, or C 2-30 heterocycloalkyl containing nitrogen as a heteroatom; R 2 is hydroxy, halo, phenyl, or C 2-30 alkenyl; wherein the phenyl in R 2 is unsubstituted or substituted with hydroxy, halo, C 1-5 alkoxy, C 1-5 alkyl, C 2-5 alkenyl, or a combination thereof; R 3 is hydrogen; and X is amido, sulfonamido, oxime, or imidamido, provided that when R 1 is nitro and X is amido, R 2 is not substituted or unsubstituted phenyl. wherein R 1 is nitro or Y-carbonyl, wherein Y is hydroxy, C 1-30 alkoxy, or C 2-30 heterocycloalkyl containing nitrogen as a heteroatom; R 2 is hydroxy, halo, phenyl, or C 2-30 alkenyl; wherein the phenyl in R 2 is unsubstituted or substituted with hydroxy, halo, C 1-5 alkoxy, C 1-5 alkyl, C 2-5 alkenyl, or a combination thereof; R 3 is hydrogen; and X is amido, sulfonamido, oxime, or imidamido, provided that when R 1 is nitro and X is amido, R 2 is not substituted or unsubstituted phenyl.
A surgical instrument (10010; 11010), comprising: an elongate shaft assembly (10200; 11200) defining a shaft axis (SA; SA-SA); and a surgical end effector (10300; 11300) comprising a distal end and a proximal end, said proximal end being pivotally coupled to said elongate shaft assembly (10200; 11200) for selective pivotal travel about an articulation axis (B-B) that extends transversely relative to said shaft axis (SA; SA-SA), said surgical end effector (10300; 11300) selectively pivotable about said articulation axis (B-B) from an unarticulated position wherein said distal end of said surgical end effector (10300; 11300) is located at an unarticulated distance from said articulation axis (B-B) to articulated positions wherein said distal end of said surgical end effector is located at a corresponding articulated distance from said articulation axis (B-B) that is less than said unarticulated distance, wherein said elongate shaft assembly (10200; 11200) comprises a pivot member (10818; 11818) that defines said articulation axis (B-B) and wherein said proximal end of said surgical end effector (10300; 11300) comprises an elongate slot (10395; 11395) configured to slidably receive said pivot member (10818; 11818) therein; further comprising means for selectively applying articulation motions to said surgical end effector (10300; 11300), characterized in that: said means for selectively applying comprises a rotary gear (10840; 11930) in meshing engagement with said surgical end effector (10300; 11300). an elongate shaft assembly (10200; 11200) defining a shaft axis (SA; SA-SA); and a surgical end effector (10300; 11300) comprising a distal end and a proximal end, said proximal end being pivotally coupled to said elongate shaft assembly (10200; 11200) for selective pivotal travel about an articulation axis (B-B) that extends transversely relative to said shaft axis (SA; SA-SA), said surgical end effector (10300; 11300) selectively pivotable about said articulation axis (B-B) from an unarticulated position wherein said distal end of said surgical end effector (10300; 11300) is located at an unarticulated distance from said articulation axis (B-B) to articulated positions wherein said distal end of said surgical end effector is located at a corresponding articulated distance from said articulation axis (B-B) that is less than said unarticulated distance, wherein said elongate shaft assembly (10200; 11200) comprises a pivot member (10818; 11818) that defines said articulation axis (B-B) and wherein said proximal end of said surgical end effector (10300; 11300) comprises an elongate slot (10395; 11395) configured to slidably receive said pivot member (10818; 11818) therein; further comprising means for selectively applying articulation motions to said surgical end effector (10300; 11300), characterized in that: said means for selectively applying comprises a rotary gear (10840; 11930) in meshing engagement with said surgical end effector (10300; 11300).
A white light source whose color temperature is 4600 or more and less than 5700, having a ratio of a minimum emission intensity to a maximum emission intensity in a wavelength region of from 450 to 610 [nm] on an emission spectrum of 0.72 or more and less than 0.97; the white light source comprising a light-emitting diode and a phosphor layer; wherein the phosphor layer, which has a single-layer structure or a stacked structure, is composed of a mixture of a phosphor and a resin, the phosphor includes four or more of phosphors with different emission wavelengths selected from a blue phosphor, a blue-green phosphor, a green or yellow phosphor, and a red phosphor; the blue phosphor is a europium-activated alkaline earth chlorophosphate phosphor; wherein the blue-green phosphor is a europium-activated strontium aluminate phosphor, wherein the green or yellow phosphor is at least one selected from a europium and manganese-activated alkaline earth aluminate phosphor, a europium and manganese-activated alkaline earth silicate phosphor, and a europium-activated SiAlON phosphor; and wherein the red phosphor is at least one selected from a europium-activated lanthanum oxysulfide phosphor, a europium-activated calcium strontium nitridoaluminosilicate (CASN) phosphor, and a europium-activated SiAlON phosphor. the white light source comprising a light-emitting diode and a phosphor layer; wherein the phosphor layer, which has a single-layer structure or a stacked structure, is composed of a mixture of a phosphor and a resin, the phosphor includes four or more of phosphors with different emission wavelengths selected from a blue phosphor, a blue-green phosphor, a green or yellow phosphor, and a red phosphor; the blue phosphor is a europium-activated alkaline earth chlorophosphate phosphor; wherein the blue-green phosphor is a europium-activated strontium aluminate phosphor, wherein the green or yellow phosphor is at least one selected from a europium and manganese-activated alkaline earth aluminate phosphor, a europium and manganese-activated alkaline earth silicate phosphor, and a europium-activated SiAlON phosphor; and wherein the red phosphor is at least one selected from a europium-activated lanthanum oxysulfide phosphor, a europium-activated calcium strontium nitridoaluminosilicate (CASN) phosphor, and a europium-activated SiAlON phosphor.
An apparatus for holding an organ or tissue for at least one of perfusion, storage, diagnosis and transport of the organ or tissue, comprising: • a portable housing, the portable housing including more than one lid that forms a substantially airtight seal with the portable housing; and • an organ or tissue supporting surface configured to support the organ or tissue within the portable housing while allowing effluent medical fluid to pass through the organ or tissue, wherein the portable housing is configured to be received by at least one of a perfusion device, a transporter and a diagnostic device, wherein the portable housing includes one or more openings configured to allow tubing to pass by way of the one or more openings and be connected to the organ or tissue, and wherein each of the lids includes an hydrophobic membrane which help maintain equal pressure between the inside and the outside of the portable housing, and wherein the portable housing includes a pressure control valve associated with the membrane allowing pressure inside the portable housing to be varied, and the pressure control valve being configured to restrict the rate at which external pressure changes are transmitted to the inside of the portable housing. • a portable housing, the portable housing including more than one lid that forms a substantially airtight seal with the portable housing; and • an organ or tissue supporting surface configured to support the organ or tissue within the portable housing while allowing effluent medical fluid to pass through the organ or tissue,
Arrangement for supplying at least one device in a control panel or an installation housing with auxiliary power, wherein at least one transmitting coil suppliable or supplied with supply voltage is provided for transmitting auxiliary power, and at least one receiving coil is provided for receiving the auxiliary power, and the at least one transmitting coil is disposed in or on the control panel or the installation housing and at least one base element (30, 31) is provided in or of the control panel or of the installation housing, which is provided with the at least one transmitting coil suppliable or supplied with a supply voltage, wherein the base element (30, 31) is designed to be modular for accommodating multiple transmitting coils so that a selective power supply is provided in the individual modules by controlling individual transmitting coils integrated into the base element (30, 31), and thereby a selective excitation of a receiving coil or receiving coils in the device to be supplied, and the base element is a base plate in or of the control panel or the installation housing or a securing device, which is a support rail for the device, in or on the control panel or the installation housing.
An electrochemical battery system, comprising: at least one electrochemical cell; a first sensor configured to generate a current signal indicative of an amplitude of a current passing into or out of the at least one electrochemical cell; a second sensor configured to generate a voltage signal indicative of a voltage across the at least one electrochemical cell; a memory in which command instructions are stored; and a processor configured to execute the command instructions to obtain the current signal and the voltage signal, characterized in that the processor is configured to generate an estimated cell nominal capacity, C nom, of the at least one electrochemical cell by estimating a first leg C nom during a first charging sequence using a first charging current, u 1, estimating a second leg C nom during a second charging sequence using a second charging current, u 2, wherein the u 2 is at a current amplitude different from the current amplitude of the u 1, and calculating the cell C nom based upon the first leg C nom and the second leg C nom, wherein the cell C nom is calculated based upon the following equation: C ^ nom = C ^ nom, 1 C ^ nom, 2 1 − u 1 u 2 C ^ nom, 1 − C ^ nom, 2 u 1 u 2 wherein "C nom, 1 " is the estimated first leg C nom, and " Ĉ nom,2 " is the estimated second leg C nom. at least one electrochemical cell; a first sensor configured to generate a current signal indicative of an amplitude of a current passing into or out of the at least one electrochemical cell; a second sensor configured to generate a voltage signal indicative of a voltage across the at least one electrochemical cell; a memory in which command instructions are stored; and a processor configured to execute the command instructions to obtain the current signal and the voltage signal, the processor is configured to generate an estimated cell nominal capacity, C nom, of the at least one electrochemical cell by estimating a first leg C nom during a first charging sequence using a first charging current, u 1, estimating a second leg C nom during a second charging sequence using a estimating a first leg C nom during a first charging sequence using a first charging current, u 1, estimating a second leg C nom during a second charging sequence using a second charging current, u 2, wherein the u 2 is at a current amplitude different from the current amplitude of the u 1, and calculating the cell C nom based upon the first leg C nom and the second leg C nom, calculating the cell C nom based upon the first leg C nom and the second leg C nom, wherein "C nom, 1 " is the estimated first leg C nom, and " Ĉ nom,2 " is the estimated second leg C nom.
A method for wireless communication, the method comprising: determining whether adaptive frequency hopping is active in a Bluetooth communication device; wherein the Bluetooth communication device and a WLAN communication device may share the same RF spectrum; and when automatic frequency hopping is not active, handshaking with the collocated WLAN communication device is enabled characterized in that if the Bluetooth communication device has high priority packets to transmit, it asserts a first signal (TX_BT) and upon recognizing that the first signal (TX_BT) has been asserted by the Bluetooth communication device, the collocated WLAN communication device stops transmitting packets regardless of the priority of the packets; and if the WLAN communication device has data to transmit, it asserts a second signal (TX_WLAN) and the collocated Bluetooth communication device stops transmitting low priority data. determining whether adaptive frequency hopping is active in a Bluetooth communication device; wherein the Bluetooth communication device and a WLAN communication device may share the same RF spectrum; and when automatic frequency hopping is not active, handshaking with the collocated WLAN communication device is enabled characterized in that if the Bluetooth communication device has high priority packets to transmit, it asserts a first signal (TX_BT) and upon recognizing that the first signal (TX_BT) has been asserted by the Bluetooth communication device, the collocated WLAN communication device stops transmitting packets regardless of the priority of the packets; and if the WLAN communication device has data to transmit, it asserts a second signal (TX_WLAN) and the collocated Bluetooth communication device stops transmitting low priority data.
An isolated monoclonal antibody, comprising a CD152-binding domain, wherein the CD152-binding domain comprises an immunoglobulin heavy chain variable region comprising an amino acid sequence of SEQ ID NO: 183, wherein the antibody is a heavy-chain-only antibody, wherein the antibody comprises the effector function of antibody-dependent cell-mediated cytotoxicity (ADCC).
A method for preparing a plurality of micro-devices for transfer, the method comprising: temporarily bonding the micro-devices onto a carrier substrate; testing the micro-devices on the carrier substrate to determine if there is at least one first failed micro-device in the micro-devices; removing the first failed micro-device from the carrier substrate; and transferring the remaining micro-devices, the method being characterized in that said step of transferring the remaining micro-devices is made from the carrier substrate to a receiving substrate after said removing, and it further comprises: acquiring at least one location of at least one micro-device void on the receiving substrate; and patching the micro-device void on the receiving substrate with at least one patching micro-device. temporarily bonding the micro-devices onto a carrier substrate; testing the micro-devices on the carrier substrate to determine if there is at least one first failed micro-device in the micro-devices; removing the first failed micro-device from the carrier substrate; and transferring the remaining micro-devices, the method being characterized in that said step of transferring the remaining micro-devices is made from the carrier substrate to a receiving substrate after said removing, and it further comprises: acquiring at least one location of at least one micro-device void on the receiving substrate; and patching the micro-device void on the receiving substrate with at least one patching micro-device. acquiring at least one location of at least one micro-device void on the receiving substrate; and patching the micro-device void on the receiving substrate with at least one patching micro-device.
Electrical plug-in connector having a contact body for electrically contacting a mating contact, wherein the contact body has: -- a contacting section for electrically contacting the mating contact, and -- a connection region for electrically and mechanically contacting a cable, wherein the connection region extends along a longitudinal axis, which defines an axial direction, wherein two insulation-displacement elements (10, 20) are arranged in the connection region, the insulation-displacement elements each having two opposing blades (11a, 11b, 21a, 21b), wherein the two blades (11a, 11b, 21a, 21b) of an insulation-displacement element (10, 20) in each case define a receiving opening (12, 22), which points outwards transverse to the longitudinal axis, for the cable, characterized in that the two receiving openings (12, 22) in the two insulation-displacement elements (10, 20) are rotated relative to one another about the longitudinal axis through an angle (α), wherein the angle (α) is in a range of between 40° and 140°. -- a contacting section for electrically contacting the mating contact, and -- a connection region for electrically and mechanically contacting a cable, wherein the connection region extends along a longitudinal axis, which defines an axial direction, wherein two insulation-displacement elements (10, 20) are arranged in the connection region, the insulation-displacement elements each having two opposing blades (11a, 11b, 21a, 21b), wherein the two blades (11a, 11b, 21a, 21b) of an insulation-displacement element (10, 20) in each case define a receiving opening (12, 22), which points outwards transverse to the longitudinal axis, for the cable, characterized in that the two receiving openings (12, 22) in the two insulation-displacement elements (10, 20) are rotated relative to one another about the longitudinal axis through an angle (α), wherein the angle (α) is in a range of between 40° and 140°.
A system for identifying location of a plunger that moves along a length of a well, comprising: an acoustic source (160, 170) carried in the well configured to transmit an acoustic signal when the plunger reaches a sense location in the well; an acoustic receiver positioned at a top of the well configured to receive the acoustic signal; and processing circuitry configured to detect the received acoustic signal and provide an output indicative of the plunger reaching the sense location, characterized in that the well includes tubing which extends from a surface to the sense location and wherein the acoustic source (160, 170) is adapted to generate the acoustic signal such that the acoustic signal is carried by the tubing. an acoustic source (160, 170) carried in the well configured to transmit an acoustic signal when the plunger reaches a sense location in the well; an acoustic receiver positioned at a top of the well configured to receive the acoustic signal; and processing circuitry configured to detect the received acoustic signal and provide an output indicative of the plunger reaching the sense location, characterized in that the well includes tubing which extends from a surface to the sense location and wherein the acoustic source (160, 170) is adapted to generate the acoustic signal such that the acoustic signal is carried by the tubing.