mhurhangee/ep-ind-claims huggingface dataset:
A walking assistant harness suitable to be attached to a leg of a trainee so as to assist walking of the trainee, the walking assistant harness comprising: a thigh frame (40, 140, 240, 340) suitable to be placed along a front side or a rear side of a thigh of the trainee; and a thigh fixation belt (30, 130, 230, 330) connected to the thigh frame at a connection portion so as, in use, to fix the thigh of the trainee to the thigh frame, the walking assistant harness being characterized in that the connection portion includes a connecting position adjustment mechanism (41a, 41b, 42a, 42b; 141a, 141b, 142a, 142b; 241; 341a, 341b, 342a, 342b) configured to adjust a connecting position with the thigh fixation belt (30, 130, 230, 330) in a right-left direction of the trainee. a thigh frame (40, 140, 240, 340) suitable to be placed along a front side or a rear side of a thigh of the trainee; and a thigh fixation belt (30, 130, 230, 330) connected to the thigh frame at a connection portion so as, in use, to fix the thigh of the trainee to the thigh frame, the walking assistant harness being characterized in that the connection portion includes a connecting position adjustment mechanism (41a, 41b, 42a, 42b; 141a, 141b, 142a, 142b; 241; 341a, 341b, 342a, 342b) configured to adjust a connecting position with the thigh fixation belt (30, 130, 230, 330) in a right-left direction of the trainee.
An apparatus, comprising: an encoding circuit configured to receive data and provide a first set of encoded data based on a first set of the data and provide a second set of encoded data based on a second set of the data, the encoding circuit configured to further provide a first data bus inversion control signal associated with the first set of encoded data and further provide a second data bus inversion control signal associated with the second set of encoded data wherein the encoding circuit is configured to encode the first and second sets of the data with data bus inversion encoding; characterized by a multi-level encoder coupled to the encoding circuit and configured to receive the first and second sets of encoded data and receive the first and second data bus inversion control signals, the multi-level encoder further configured to provide the first and second sets of encoded data as respective multi-level signals to a bus responsive to receipt of the first and second sets of encoded data and the multi-level encoder further configured to provide a multi-level data bus inversion signal based on the first and second data bus inversion control signals. an encoding circuit configured to receive data and provide a first set of encoded data based on a first set of the data and provide a second set of encoded data based on a second set of the data, the encoding circuit configured to further provide a first data bus inversion control signal associated with the first set of encoded data and further provide a second data bus inversion control signal associated with the second set of encoded data wherein the encoding circuit is configured to encode the first and second sets of the data with data bus inversion encoding; characterized by a multi-level encoder coupled to the encoding circuit and configured to receive the first and second sets of encoded data and receive the first and second data bus inversion control signals, the multi-level encoder further configured to provide the first and second sets of encoded data as respective multi-level signals to a bus responsive to receipt of the first and second sets of encoded data and the multi-level encoder further configured to provide a multi-level data bus inversion signal based on the first and second data bus inversion control signals.
A data processing method, wherein the method is performed by a host, the host and a storage system communicate with each other by using the Non-Volatile Memory express over Fabric, NVMeoF, protocol, the storage system comprises a plurality of control nodes and a logical disk, the host accesses the logical disk by using the plurality of control nodes, the method comprising: sending a state query command to each control node of the plurality of control nodes, wherein the state query command is used to instruct the respective control node to report the path state of the path corresponding to the respective control node; receiving the path state reported by the respective control node; if the received path state indicates that the logical disk comprises an access interval, sending an interval query command to the respective control node, wherein the interval query command is used to instruct the respective control node to report an access interval; receiving access interval information reported by the respective control node, wherein the access interval indicated by the access interval information is a contiguous or non-contiguous address space pre-allocated to the control node; and recording the mapping relationship between the respective control node and the access interval information. sending a state query command to each control node of the plurality of control nodes, wherein the state query command is used to instruct the respective control node to report the path state of the path corresponding to the respective control node; receiving the path state reported by the respective control node; if the received path state indicates that the logical disk comprises an access interval, sending an interval query command to the respective control node, wherein the interval query command is used to instruct the respective control node to report an access interval; receiving access interval information reported by the respective control node, wherein the access interval indicated by the access interval information is a contiguous or non-contiguous address space pre-allocated to the control node; and recording the mapping relationship between the respective control node and the access interval information.
A method of producing a hydrogel comprising hyaluronic acid, or salt thereof, cross-linked with divinylsulfone, said method comprising the steps of: (a) providing an alkaline solution of hyaluronic acid, or salt thereof; (b) adding DVS to the solution of step (a) with stirring, whereby the hyaluronic acid, or salt thereof, is cross-linked with the DVS to form a gel; (c) treating the gel of step (b) with a buffer, wherein the gel swells and forms a hydrogel comprising hyaluronic acid, or salt thereof, cross-linked with DVS, wherein the solution temperature in step (b) is maintained in the range of 15°C - 30°C and then heated to 35°C - 60°C and wherein the temperature is maintained in the range of 35°C - 60°C for a period of at least 5 minutes. (a) providing an alkaline solution of hyaluronic acid, or salt thereof; (b) adding DVS to the solution of step (a) with stirring, whereby the hyaluronic acid, or salt thereof, is cross-linked with the DVS to form a gel; (c) treating the gel of step (b) with a buffer, wherein the gel swells and forms a hydrogel comprising hyaluronic acid, or salt thereof, cross-linked with DVS,
A forest sowing device for sowing deciduous trees with heavy fruit with • a device carrier, • first rotary bearing elements (5.1) on the device carrier on both sides of a longitudinal axis (1.2) of the device, • two disks, each of which has a central second rotary bearing element (5.2), which is mounted on one of the first rotary bearing elements (5.1), wherein the two disks are arranged on different sides of the longitudinal axis of the device, • wherein the rotary bearing axes (5.3) of the first rotary bearing elements (5.1) are respectively tilted at an acute angle forwards with respect to a horizontal perpendicular to the longitudinal axis (1.2) of the device and are tilted at an acute angle to the vertical so that the two disks below the first rotary bearing elements (5.1) are closer to each other than above the first rotary bearing elements (5.1), • wherein the device carrier has a central device carrier (1.1), which is arranged between the disks on the longitudinal axis (1.2), and the rotary bearing elements (5.1) of the device carrier are arranged on both sides of the central device carrier, • at least one dosing apparatus (7.1) for tree seeds on the device carrier, characterized in that - the device is designed to only be supported via the disks on the ground, - the disks are serrated on the perimeter and - a dosing opening of the dosing apparatus (7.1) is arranged between the two disks. • a device carrier, • first rotary bearing elements (5.1) on the device carrier on both sides of a longitudinal axis (1.2) of the device, • two disks, each of which has a central second rotary bearing element (5.2), which is mounted on one of the first rotary bearing elements (5.1), wherein the two disks are arranged on different sides of the longitudinal axis of the device, • wherein the rotary bearing axes (5.3) of the first rotary bearing elements (5.1) are respectively tilted at an acute angle forwards with respect to a horizontal perpendicular to the longitudinal axis (1.2) of the device and are tilted at an acute angle to the vertical so that the two disks below the first rotary bearing elements (5.1) are closer to each other than above the first rotary bearing elements (5.1), • wherein the device carrier has a central device carrier (1.1), which is arranged between the disks on the longitudinal axis (1.2), and the rotary bearing elements (5.1) of the device carrier are arranged on both sides of the central device carrier, • at least one dosing apparatus (7.1) for tree seeds on the device carrier, characterized in that - the device is designed to only be supported via the disks on the ground, - the disks are serrated on the perimeter and - a dosing opening of the dosing apparatus (7.1) is arranged between the two disks. - the device is designed to only be supported via the disks on the ground, - the disks are serrated on the perimeter and - a dosing opening of the dosing apparatus (7.1) is arranged between the two disks.
A method for initial access to a radio access network, the method being performed by a wireless device configured for accessing the radio access network using at least a first cellular radio access technology, RAT, and a second cellular RAT, the method comprising: obtaining system information using a first carrier frequency and the first RAT, wherein the system information comprises inter-frequency cell information of the second RAT; and synchronizing with the second RAT using a second carrier frequency based on the obtained system information in order to establish initial access to the radio access network, wherein the second carrier frequency is higher than the first carrier frequency, the method characterised in that the synchronizing with the second RAT is performed even when a quality criterion for registering with the first RAT is fulfilled; and the method further comprises determining a reference frequency error estimate between a local reference frequency of the wireless device and the first carrier frequency, wherein the synchronizing with the second RAT is based on the reference frequency error estimate. obtaining system information using a first carrier frequency and the first RAT, wherein the system information comprises inter-frequency cell information of the second RAT; and synchronizing with the second RAT using a second carrier frequency based on the obtained system information in order to establish initial access to the radio access network, wherein the second carrier frequency is higher than the first carrier frequency, the method the synchronizing with the second RAT is performed even when a quality criterion for registering with the first RAT is fulfilled; and the method further comprises determining a reference frequency error estimate between a local reference frequency of the wireless device and the first carrier frequency, wherein the synchronizing with the second RAT is based on the reference frequency error estimate.
A road characterization method, comprising: acquiring a target road having multiple lanes for travel in a certain direction, wherein the target road comprises one or more road segments; dividing the road segments according to road segment attribute information defining for each of the road segments locations where it is feasible to make a lane change between adjacent ones of the lanes, into one or more atomic lanes, each atomic lane of each corresponding road segment being a portion of one lane of the road segment for which at any point the feasibility of making a lane change to an adjacent lane is the same; determining lane association information related to the atomic lanes corresponding to the target road, wherein the one or more atomic lanes and the lane association information are used for characterizing the target road; constructing, according to the one or more atomic lanes and the lane association information, a directed graph corresponding to the target road, wherein each vertex in the directed graph corresponds to one of the atomic lanes, and wherein a directed edge between two vertices in the directed graph corresponds to the lane association information related to the two atomic lanes; characterised in that in the case of a target road including a roundabout having entrances and exits and circular lanes, the method includes forming atomic lanes for the roundabout by cutting the circular lanes of the roundabout at extension lines of entrance and exit road segments connected respectively to the entrances and exits of the roundabout. acquiring a target road having multiple lanes for travel in a certain direction, wherein the target road comprises one or more road segments; dividing the road segments according to road segment attribute information defining for each of the road segments locations where it is feasible to make a lane change between adjacent ones of the lanes, into one or more atomic lanes, each atomic lane of each corresponding road segment being a portion of one lane of the road segment for which at any point the feasibility of making a lane change to an adjacent lane is the same; determining lane association information related to the atomic lanes corresponding to the target road, wherein the one or more atomic lanes and the lane association information are used for characterizing the target road; constructing, according to the one or more atomic lanes and the lane association information, a directed graph corresponding to the target road, wherein each vertex in the directed graph corresponds to one of the atomic lanes, and wherein a directed edge between two vertices in the directed graph corresponds to the lane association information related to the two atomic lanes; characterised in that in the case of a target road including a roundabout having entrances and exits and circular lanes, the method includes forming atomic lanes for the roundabout by cutting the circular lanes of the roundabout at extension lines of entrance and exit road segments connected respectively to the entrances and exits of the roundabout.
A method for manufacturing a thick high-toughness high-strength steel plate having a plate thickness of not less than 100 mm, the steel plate including a microstructure having, throughout an entire region in the plate thickness direction, an average prior austenite grain size of not more than 50 μm and a martensite and/or bainite phase area fraction of not less than 80%, wherein a continuously cast slab is heated to 1200°C to 1350°C, hot worked at not less than 1000°C with a strain rate of not more than 3/s and a cumulative working reduction of not less than 15%, then directly subjected to hot rolling or air cooled and heated again to Ac3 point to 1200°C before subjected to hot rolling, the hot rolling including at least two or more passes with a rolling reduction per pass of not less than 4%, air cooled, heated to Ac3 point to 1050°C, quenched to 350°C or below and tempered at 450°C to 700°C, wherein the temperatures are temperatures in the central area through the thickness of the slab or plate, the continuously cast slab consisting of, by mass%, C: 0.08 to 0.20%, Si: not more than 0.40%, Mn: 0.5 to 5.0%, P: not more than 0.015%, S: not more than 0.0050%, Cr: not more than 3.0%, Ni: not more than 5.0%, Ti: 0.005% to 0.020%, Al: 0.010 to 0.080%, N: not more than 0.0070%, B: 0.0003 to 0.0030%, optionally one, or two or more of Cu: not more than 0.50%, Mo: not more than 1.00% and V: not more than 0.200%, and optionally one or both of Ca: 0.0005 to 0.0050% and REM: 0.0005 to 0.0050%, the balance being Fe and inevitable impurities, the continuously cast slab satisfying the relationship represented by Expression: Ceq IIW = C + Mn / 6 + Cu + Ni / 15 + Cr + Mo + V / 5 ≥ 0.57 wherein the alloying element symbols indicate the respective contents (mass%) and are 0 when absent.
A boom for a working machine, in particular a concrete distributing boom for guiding a concrete delivery line, comprising a plurality of boom arms, which are movable into a working position and which are composed at least partially, as a box construction, of a plurality of side walls (42, 44) delimiting a cavity region, and further comprising a sealing partition arrangement for sealing a cross section of the cavity region, characterized in that the sealing partition arrangement has a partition wall peripherally provided with an at least partially circumferential sealing groove, and in that in the sealing groove is arranged an elastic seal, which bears in a sealtight manner against the inside of the adjacent side walls (42, 44).
A method for producing a mechanical locking system for a first panel and a second panel, such as building panels or floor panels, wherein the first panel and the second panels comprises a core material comprising a thermoplastic material, wherein the method comprises: • providing a tongue, comprising a first locking surface, at a first edge of the first panel; • forming a tongue groove, comprising a second locking surface, preferably by mechanical cutting, at a second edge of the second panel, said first locking surface and second locking surface are configured to cooperate for locking the first edge to the second edge in a first direction; • providing a first guiding surface at the first edge and a second guiding surface at the second edge, wherein the mechanical locking system is configured such that first guiding surface cooperates with the second guiding surface during an assembling of the first edge and the second edge; • producing the mechanical locking system by mechanical cutting, such as milling, preferably in a milling line; • working of the first guiding surface and/or the second guiding surface to reduce a coefficient of friction between the first guiding surface and the second guiding surface and/or to reduce a surface roughness of the worked guiding surface(s), characterised in that the method furthermore comprises: • the working of the first guiding surface and/or the second guiding surface is performed by pressing by a fixed tool, such as a sliding bar or pressure shoe. • providing a tongue, comprising a first locking surface, at a first edge of the first panel; • forming a tongue groove, comprising a second locking surface, preferably by mechanical cutting, at a second edge of the second panel, said first locking surface and second locking surface are configured to cooperate for locking the first edge to the second edge in a first direction; • providing a first guiding surface at the first edge and a second guiding surface at the second edge, wherein the mechanical locking system is configured such that first guiding surface cooperates with the second guiding surface during an assembling of the first edge and the second edge; • producing the mechanical locking system by mechanical cutting, such as milling, preferably in a milling line; • working of the first guiding surface and/or the second guiding surface to reduce a coefficient of friction between the first guiding surface and the second guiding surface and/or to reduce a surface roughness of the worked guiding surface(s), • the working of the first guiding surface and/or the second guiding surface is performed by pressing by a fixed tool, such as a sliding bar or pressure shoe.
Use of a bioreactor system for converting a feed gas containing at least one of CO or a mixture of CO 2 and H 2 to a liquid product under anaerobic conditions and delivering the liquid product to a product containing liquid, said system comprising: a) an asymmetric hydrophilic membrane having a gas contacting side in contact with the feed gas, a liquid contacting side in contact with the product containing liquid, a bio-layer defining a plurality of bio-pores having effective diameters of at least 1 μm over at least a portion of the pore length for retaining microorganisms therein, a porous surface on the bio-layer defining the gas contacting side and presenting open ends of the bio- pores to the feed gas, and a hydration layer that controls the flow of product containing liquid from the bio-layer and defines the liquid contact side of the membrane, wherein the asymmetric membrane is arranged to transport the feed gas and the liquid products in co-directional flow from the gas contacting side to the liquid contacting side; b) a feed gas supply conduit for supplying feed gas; c) a feed gas chamber in fluid communication with the gas supply conduit and the gas contacting side of the membrane for supplying feed gas to microorganisms retained in said bio-pores; d) a liquid circulation chamber in fluid communication with the liquid contacting side of the membrane for supplying water and nutrients to the microorganisms; and, e) a liquid recovering conduit for transferring liquid products from the bioreactor system. a) an asymmetric hydrophilic membrane having a gas contacting side in contact with the feed gas, a liquid contacting side in contact with the product containing liquid, a bio-layer defining a plurality of bio-pores having effective diameters of at least 1 μm over at least a portion of the pore length for retaining microorganisms therein, a porous surface on the bio-layer defining the gas contacting side and presenting open ends of the bio- pores to the feed gas, and a hydration layer that controls the flow of product containing liquid from the bio-layer and defines the liquid contact side of the membrane, wherein the asymmetric membrane is arranged to transport the feed gas and the liquid products in co-directional flow from the gas contacting side to the liquid contacting side; b) a feed gas supply conduit for supplying feed gas; c) a feed gas chamber in fluid communication with the gas supply conduit and the gas contacting side of the membrane for supplying feed gas to microorganisms retained in said bio-pores; d) a liquid circulation chamber in fluid communication with the liquid contacting side of the membrane for supplying water and nutrients to the microorganisms; and, e) a liquid recovering conduit for transferring liquid products from the bioreactor system.