mhurhangee/ep-ind-claims huggingface dataset:
A lifting apparatus, comprising: - at least one mast unit (1, 1a, 1b, 1c) including a mast (10, 10a) extending in a vertical direction of the lifting apparatus, - at least one height-adjustable connecting means (12, 12b, 12c) for connecting a lifting device, - a handling means including a handle being attached to one side of the mast (10, 10a) and being configured to handle the lifting apparatus, as well as - at least one functional element being attached to the handling means, especially an operating unit, a display, a combined operating unit and display, especially being touchsensitive, or a storage element, the handling means including at least a first handle part being attached to the handle, characterised in that the first handle part includes a central handle section at which the user can hold the first handle part and an inner bracket section and an outer bracket section being located laterally next to the handle section of the first handle part, a receiving space being formed between the handle section and the inner bracket section, at least one functional element being capable of being arranged in the receiving space and/or at least one functional element being attached to the outside of the inner bracket section. - at least one mast unit (1, 1a, 1b, 1c) including a mast (10, 10a) extending in a vertical direction of the lifting apparatus, - at least one height-adjustable connecting means (12, 12b, 12c) for connecting a lifting device, - a handling means including a handle being attached to one side of the mast (10, 10a) and being configured to handle the lifting apparatus, as well as - at least one functional element being attached to the handling means, especially an operating unit, a display, a combined operating unit and display, especially being touchsensitive, or a storage element,
A human-computer interface, comprising: an arbitrarily positionable wearable device having a plurality of sensor nodes (215, 220, 225, 230, 235, 240), wherein each sensor node (215, 220, 225, 230, 235, 240) further includes one or more Electromyography, EMG, sensors (215, 220, 225, 230, 235, 240); a module for automatically measuring muscle generated electrical signals using one or more of the EMG sensors (215, 220, 225, 230, 235, 240); a module for automatically determining which muscle generated electrical signals correspond to one or more specific user gestures; a module for causing one or more computing devices (150, 155) to automatically execute one or more specific commands corresponding to one or more of the specific user gestures; a module for automatically determining an approximate position of the wearable device on the surface of the skin of the user's body; and a user feedback module for directing the user in repositioning the wearable device from an arbitrarily initial position in order to better position one or more of the sensor nodes (215, 220, 225, 230, 235, 240) to capture particular muscle generated electrical signals. an arbitrarily positionable wearable device having a plurality of sensor nodes (215, 220, 225, 230, 235, 240), wherein each sensor node (215, 220, 225, 230, 235, 240) further includes one or more Electromyography, EMG, sensors (215, 220, 225, 230, 235, 240); a module for automatically measuring muscle generated electrical signals using one or more of the EMG sensors (215, 220, 225, 230, 235, 240); a module for automatically determining which muscle generated electrical signals correspond to one or more specific user gestures; a module for causing one or more computing devices (150, 155) to automatically execute one or more specific commands corresponding to one or more of the specific user gestures; a module for automatically determining an approximate position of the wearable device on the surface of the skin of the user's body; and a user feedback module for directing the user in repositioning the wearable device from an arbitrarily initial position in order to better position one or more of the sensor nodes (215, 220, 225, 230, 235, 240) to capture particular muscle generated electrical signals.
An electrode component, comprising: a ceramic substrate having two opposite surfaces; two electrode layers respectively formed on the two opposite surfaces of the ceramic substrate; two pins, each pin having a top portion connected to a respective one of the two electrode layers; and an insulating layer enclosing the ceramic substrate, the two electrode layers and the top portion of each pin; characterized in that each electrode layer is formed of two or more base metal materials or alloys of the base metal materials with a concentration gradient of each of the base metal materials progressively varying across the thickness of the electrode layer. a ceramic substrate having two opposite surfaces; two electrode layers respectively formed on the two opposite surfaces of the ceramic substrate; two pins, each pin having a top portion connected to a respective one of the two electrode layers; and an insulating layer enclosing the ceramic substrate, the two electrode layers and the top portion of each pin; characterized in that each electrode layer is formed of two or more base metal materials or alloys of the base metal materials with a concentration gradient of each of the base metal materials progressively varying across the thickness of the electrode layer.
A biaxially oriented formable polyester film having a difference of not more than 0.007 between maximum and minimum values of a face orientation coefficient as determined in a 20 square cm region of said film, and an average face orientation coefficient of 0.11 to 0.15 as determined in said film region said face orientation coefficient being defined as fn = n MD + n TD 2 - n ZD where n MD denotes the refractive index of the film in the lengthwise direction, n TD denotes the refractive index of the film in the widthwise direction, and n ZD denotes the refractive index of the film in the thickness direction wherein said film fulfills the equation 1.8 ≦ τ ⁢ 1 / τ ⁢ 2 ≦ 50 ̲ which expresses the relationship of relaxation time of a carbonyl carbon atom (τ1) and relaxation time of a 1,4 benzene ring carbon atoms (τ2) in a relaxation time T1ρ measured by means of solid high resolution nuclear magnetic resonance spectroscopy where the unit of each of τ1 and τ2 is msec; and the content of acetaldehyde in the polyester film is 25 ppm or below.
Position detection device comprising a first and a second electrode pair, an electrically conductive body, which forms an electrical resistance and which is electrically connected to the electrodes (17, 18, 19, 20) of the first and second electrode pair and extends in a first direction (y) between the electrodes (17, 18) of the first electrode pair and in a second direction (x) between the electrodes (19, 20) of the second electrode pair, a measuring electrode, which is in electrically conductive touching contact with the surface of a measurement region of the body, said measurement region being positioned between the electrodes (17, 18, 19, 20) of the first and second electrode pairs, and is movable relative to said body, characterized by at least one voltmeter, which is electrically connected to the measuring electrode and which is electrically connectable to a first electrode of the first electrode pair and/or to a first electrode of the second electrode pair and can measure the electric voltage between the respective first electrode (18; 20) and the measuring electrode.
A medium transporting apparatus, comprising: a transporting member configured to transport a medium in a transport path; a separating member via which the medium is transported by the transporting member in the transport path; a pressure roller disposed downstream of the separating member with respect to the transport path, the pressure roller urging the medium, which has passed the separating member, against the transporting member; and a support member configured to rotatably support the pressure roller thereon, the support member being movable between a first position where the pressure roller is in contact engagement with the transporting member and a second position where the pressure roller is out of contact engagement with the transporting member; wherein the support member moves in a path between the first position and the second position such that immediately after the pressure roller has moved into contact engagement with the transporting member, the pressure roller slides by a predetermined amount on the circumferential surface of the transporting member in a direction away from the separating member; wherein the pressure roller includes a shaft to which a gear is attached; wherein the separating member includes an edge portion by which the medium is kinked; wherein the medium transporting apparatus includes a gear toothed surface in meshing engagement with the gear when the support member moves from the second position toward the first position; and wherein the gear moves out of meshing engagement with the gear toothed surface when the support member reaches the first position. a transporting member configured to transport a medium in a transport path; a separating member via which the medium is transported by the transporting member in the transport path; a pressure roller disposed downstream of the separating member with respect to the transport path, the pressure roller urging the medium, which has passed the separating member, against the transporting member; and a support member configured to rotatably support the pressure roller thereon, the support member being movable between a first position where the pressure roller is in contact engagement with the transporting member and a second position where the pressure roller is out of contact engagement with the transporting member;
Deburring tool for deburring bore edges of even or uneven shape having a base body driven rotatably about its longitudinal axis, in which at least one deburring blade is mounted to be replaceable in a blade holder mounted to be pivotable and spring-loaded in the base body, wherein the blade holder is designed as a cylindrical body, wherein the blade holder has a bar blade bore running transversely to the longitudinal axis of the blade holder, and the deburring blade is designed as a bar blade and is inserted into the bar blade bore, characterised in that the blade holder is mounted to be rotatable in a bearing bore of the base body.
A computer system comprising: - an integrated circuit; - a sensing circuit coupled to the IC to measure the current consumed by the IC; - a power supply to supply power to the IC, the power supply comprising: - a reference control comparator adapted to receive a load status voltage from the sensing circuit coupled to the IC and to control the magnitude of a reference voltage based on the load status voltage received; - an over-current protection circuit couple to the reference control comparator and adapted to receive an input voltage proportional to the load current supplied by the power supply to the IC, and to shut down the power supply if the input voltage exceeds the reference voltage. - an integrated circuit; - a sensing circuit coupled to the IC to measure the current consumed by the IC; - a power supply to supply power to the IC, the power supply comprising: - a reference control comparator adapted to receive a load status voltage from the sensing circuit coupled to the IC and to control the magnitude of a reference voltage based on the load status voltage received; - an over-current protection circuit couple to the reference control comparator and adapted to receive an input voltage proportional to the load current supplied by the power supply to the IC, and to shut down the power supply if the input voltage exceeds the reference voltage.
A mobile radio communications device for communication within a mobile radio communications network, the mobile radio communications network comprising an evolved Node B, the device being arranged for operating at least one application requiring network access for data transmission and the network access including a Small Data Transmission, SDT, feature, the mobile radio communications device further being arranged to: receive, from the evolved Node B, a Radio Resource Control, RRC, connection reconfiguration signal comprising an Attach Accept message, wherein the Attach Accept message comprises reference application information, and wherein the reference application information comprises a SDT allowed application list or a SDT barred application list; determine, by means of the reference application information, whether a first application stored in the device and seeking use of the SDT feature can employ the Small Data Transmission feature for its data transmission; and use, upon determining that the first application can employ the SDT feature, the SDT feature for transmitting data of the first application to the evolved Node B. receive, from the evolved Node B, a Radio Resource Control, RRC, connection reconfiguration signal comprising an Attach Accept message, wherein the Attach Accept message comprises reference application information, and wherein the reference application information comprises a SDT allowed application list or a SDT barred application list; determine, by means of the reference application information, whether a first application stored in the device and seeking use of the SDT feature can employ the Small Data Transmission feature for its data transmission; and use, upon determining that the first application can employ the SDT feature, the SDT feature for transmitting data of the first application to the evolved Node B.
A valve device (151, 200) for placing in a body lumen comprising a valve (1, 100) and a support for the valve, the valve (1, 100) comprising at least four leaflets (3, 4, 5) and having a normally closed configuration in which the valve (1, 100) is closed and an open configuration in which the valve (1, 100) is opened for flow through the valve; characterized in that the support comprises a stent-like structure made of a relatively short length of a mesh made from a shape memory material to which the valve (1, 100) is mounted, the stent-like structure having a series of protrusions extending perpendicularly from its surface for interlocking with the existing mesh of a pre-deployed luminal prosthesis intermediate a proximal end and a distal end of the pre-deployed luminal prosthesis. a normally closed configuration in which the valve (1, 100) is closed and an open configuration in which the valve (1, 100) is opened for flow through the valve; characterized in that the support comprises a stent-like structure made of a relatively short length of a mesh made from a shape memory material to which the valve (1, 100) is mounted, the stent-like structure having a series of protrusions extending perpendicularly from its surface for interlocking with the existing mesh of a pre-deployed luminal prosthesis intermediate a proximal end and a distal end of the pre-deployed luminal prosthesis.
Vehicle for handling materials and earthmoving, comprising a dashboard, wherein the dashboard comprises a liquid reservoir, characterize in that said liquid reservoir is formed in one piece with the rest of the dashboard.
A steel sheet for hot press forming, comprising: a base steel sheet; and an aluminum-magnesium alloy plating layer formed on at least one surface of the base steel sheet, wherein the aluminum-magnesium alloy plating layer includes an element having a higher degree of oxidation than a degree of oxidation of magnesium (Mg) included in the aluminum-magnesium alloy plating layer, wherein the element having a higher degree of oxidation than a degree of oxidation of the magnesium (Mg) is one or more selected from a group consisting of beryllium (Be), calcium (Ca), lithium (Li), and sodium (Na), wherein the aluminum-magnesium alloy plating layer includes 0.0005 wt% to 0.05 wt% of the element having a higher degree of oxidation than the magnesium (Mg), wherein the aluminium-magnesium alloy plating layer includes 0.5 wt% to 10 wt% of magnesium (Mg), wherein the aluminum-magnesium alloy plating layer has an average thickness of 5 μm to 30 μm. a base steel sheet; and an aluminum-magnesium alloy plating layer formed on at least one surface of the base steel sheet, wherein the aluminum-magnesium alloy plating layer includes an element having a higher degree of oxidation than a degree of oxidation of magnesium (Mg) included in the aluminum-magnesium alloy plating layer, wherein the element having a higher degree of oxidation than a degree of oxidation of the magnesium (Mg) is one or more selected from a group consisting of beryllium (Be), calcium (Ca), lithium (Li), and sodium (Na), wherein the aluminum-magnesium alloy plating layer includes 0.0005 wt% to 0.05 wt% of the element having a higher degree of oxidation than the magnesium (Mg), wherein the aluminium-magnesium alloy plating layer includes 0.5 wt% to 10 wt% of magnesium (Mg), wherein the aluminum-magnesium alloy plating layer has an average thickness of 5 μm to 30 μm.
A fluid degassing apparatus comprising a single module having: a. a fluid inlet; b. a separation chamber in fluid communication with said fluid inlet, the chamber having first and second end portions (142, 144), with said first end portion being operably oriented gravitationally above said second end portion; c. a first gas-permeable, liquid-impermeable membrane being disposed in said separation chamber to separate said separation chamber into a first permeate side and a first retentate side, said first membrane extending substantially along a first axis defined as extending between said first and second end portions, with said fluid inlet opening to said first retentate side; d. a degassing chamber that is fluidly disconnected from the separation chamber; and e. a second gas-permeable, liquid-impermeable membrane being disposed in the degassing chamber to separate said degassing chamber into a second permeate side and a second retentate side, wherein said first retentate side is fluidly coupled to said second retentate side, and said permeate sides of said first and second membranes are fluidly coupled to a vacuum source. a. a fluid inlet; b. a separation chamber in fluid communication with said fluid inlet, the chamber having first and second end portions (142, 144), with said first end portion being operably oriented gravitationally above said second end portion; c. a first gas-permeable, liquid-impermeable membrane being disposed in said separation chamber to separate said separation chamber into a first permeate side and a first retentate side, said first membrane extending substantially along a first axis defined as extending between said first and second end portions, with said fluid inlet opening to said first retentate side; d. a degassing chamber that is fluidly disconnected from the separation chamber; and e. a second gas-permeable, liquid-impermeable membrane being disposed in the degassing chamber to separate said degassing chamber into a second permeate side and a second retentate side, wherein said first retentate side is fluidly coupled to said second retentate side, and said permeate sides of said first and second membranes are fluidly coupled to a vacuum source.
A thick-wall oil-well steel pipe characterized by having a wall thickness of 40 mm or more, and having a chemical composition consisting of, in mass%, C: 0.40 to 0.65%, Si: 0.05 to 0.50%, Mn: 0.10 to 1.0%, P: 0.020% or less, S: 0.0020% or less, sol. Al: 0.005 to 0.10%, Cr: more than 0.40 to 2.0%, Mo: more than 1.15 to 5.0%, Cu: 0.50% or less, Ni: 0.50% or less, N: 0.007% or less, O: 0.005% or less, V: 0 to 0.25%, Nb: 0 to 0.10%, Ti: 0 to 0.05%, Zr: 0 to 0.10%, W: 0 to 1.5%, B: 0 to 0.005%, Ca: 0 to 0.003%, Mg: 0 to 0.003%, and rare earth metal: 0 to 0.003%, with the balance being Fe and impurities, wherein the number of carbide which has a circle equivalent diameter of 100 nm or more and contains 20 mass% or more of Mo is 2 or less per 100 μm 2, and wherein the thick-wall oil-well steel pipe has yield strength of 827 MPa or more, and a difference between a maximum value and a minimum value of the yield strength in a wall-thickness direction is 45 MPa or less.
A non-orthogonal data transmission device, comprising: a splitting unit, configured to split a to-be-transmitted transport block into N code blocks with sizes which are not completely equal, wherein N is an integer greater than or equal to 2; a coding unit, configured to perform error correction coding on the N code blocks to obtain N encoded bit blocks; and a transmission unit, configured to non-orthogonally transmit the N encoded bit blocks by using resources that are the same in at least one dimension of a time domain, a frequency domain, a space domain, and a code domain, wherein the transmission unit is specifically configured to: split each of the N encoded bit blocks and pseudorandomly map the split N encoded bit blocks onto at least two of M bit streams; or pseudorandomly map the N encoded bit blocks onto at least two of M bit streams after at least two of the N encoded bit blocks are combined, wherein M is an integer greater than 1; modulate the M bit streams to obtain M to-be-transmitted symbol streams, wherein quantities of modulation symbols comprised in all of the M to-be-transmitted symbol streams are equal; superpose the M to-be-transmitted symbol streams to obtain a superposed symbol stream; and non-orthogonally transmit the superposed symbol stream. a splitting unit, configured to split a to-be-transmitted transport block into N code blocks with sizes which are not completely equal, wherein N is an integer greater than or equal to 2; a coding unit, configured to perform error correction coding on the N code blocks to obtain N encoded bit blocks; and a transmission unit, configured to non-orthogonally transmit the N encoded bit blocks by using resources that are the same in at least one dimension of a time domain, a frequency domain, a space domain, and a code domain, wherein the transmission unit is specifically configured to: split each of the N encoded bit blocks and pseudorandomly map the split N encoded bit blocks onto at least two of M bit streams; or pseudorandomly map the N encoded bit blocks onto at least two of M bit streams after at least two of the N encoded bit blocks are combined, wherein M is an integer greater than 1; modulate the M bit streams to obtain M to-be-transmitted symbol streams, wherein quantities of modulation symbols comprised in all of the M to-be-transmitted symbol streams are equal; superpose the M to-be-transmitted symbol streams to obtain a superposed symbol stream; and non-orthogonally transmit the superposed symbol stream. split each of the N encoded bit blocks and pseudorandomly map the split N encoded bit blocks onto at least two of M bit streams; or pseudorandomly map the N encoded bit blocks onto at least two of M bit streams after at least two of the N encoded bit blocks are combined, wherein M is an integer greater than 1; modulate the M bit streams to obtain M to-be-transmitted symbol streams, wherein quantities of modulation symbols comprised in all of the M to-be-transmitted symbol streams are equal; superpose the M to-be-transmitted symbol streams to obtain a superposed symbol stream; and non-orthogonally transmit the superposed symbol stream.