mhurhangee/ep-ind-claims huggingface dataset:
A negative electrode active material for a non-aqueous electrolyte secondary battery, wherein the negative electrode active material comprises negative electrode active material particles, the negative electrode active material particles comprise a silicon compound particle which comprises a silicon compound comprising oxygen, the silicon compound particle comprises a Li compound, and the silicon compound particle is adhered with an aluminum phosphate salt or an ammonium phosphate salt in an outermost surface layer thereof. the negative electrode active material comprises negative electrode active material particles, the negative electrode active material particles comprise a silicon compound particle which comprises a silicon compound comprising oxygen, the silicon compound particle comprises a Li compound, and the silicon compound particle is adhered with an aluminum phosphate salt or an ammonium phosphate salt in an outermost surface layer thereof.
Press having - at least one press ram, with which a press stroke (h) is able to be executed upon actuation of the press, - at least one first work station and one second work station, wherein the first and the second work station (10, 20) each have a tool bottom part (12, 22) and a tool top part (14, 24), wherein a first forming stage is formed by the tool bottom part and the tool top part of the first work station and a second forming stage is formed by the tool bottom part and the tool top part of the second work station, characterized in that the press has a mechanical element for transferring the press stroke (h) to one of the first or the second forming stage (16, 26), with the result that the press stroke (h) is transferable either to the first or the second forming stage (16, 26) and independently of one another. - at least one press ram, with which a press stroke (h) is able to be executed upon actuation of the press, - at least one first work station and one second work station, wherein the first and the second work station (10, 20) each have a tool bottom part (12, 22) and a tool top part (14, 24), wherein a first forming stage is formed by the tool bottom part and the tool top part of the first work station and a second forming stage is formed by the tool bottom part and the tool top part of the second work station, characterized in that
A connection member configured to connect two winding bobbins (B2a, B2b), which are provided for winding at least one running yarn (Ya, Yb), to be aligned in a predetermined axial direction, the connection member comprising: a base portion which is sandwiched by the two winding bobbins (B2a, B2b) aligned in the axial direction; and paired attachment units which are provided on both sides of the base portion in the axial direction, the two winding bobbins (B2a, B2b) being attachable to the paired attachment units, and the base portion comprising: paired stoppers which are provided between the paired attachment units in the axial direction, the paired stoppers restricting movement of the two winding bobbins (B2a, B2b) in the axial direction; a guide surface which is provided between the paired stoppers in the axial direction, the guide surface being configured to guide the at least one running yarn (Yb) inward in a radial direction of the base portion; and a capturing claw configured to capture the at least one running yarn (Yb) guided inward in the radial direction by the guide surface. a base portion which is sandwiched by the two winding bobbins (B2a, B2b) aligned in the axial direction; and paired attachment units which are provided on both sides of the base portion in the axial direction, the two winding bobbins (B2a, B2b) being attachable to the paired attachment units, and the base portion comprising: paired stoppers which are provided between the paired attachment units in the axial direction, the paired stoppers restricting movement of the two winding bobbins (B2a, B2b) in the axial direction; a guide surface which is provided between the paired stoppers in the axial direction, the guide surface being configured to guide the at least one running yarn (Yb) inward in a radial direction of the base portion; and a capturing claw configured to capture the at least one running yarn (Yb) guided inward in the radial direction by the guide surface. paired stoppers which are provided between the paired attachment units in the axial direction, the paired stoppers restricting movement of the two winding bobbins (B2a, B2b) in the axial direction; a guide surface which is provided between the paired stoppers in the axial direction, the guide surface being configured to guide the at least one running yarn (Yb) inward in a radial direction of the base portion; and a capturing claw configured to capture the at least one running yarn (Yb) guided inward in the radial direction by the guide surface.
A method for configuring Radio Bearer, RB, comprising: receiving, by a NodeB, a message from user equipment, UE, wherein the message is used for indicating the NodeB to configure at least one RB; and transmitting, by the NodeB, a response message in response to the message to the UE before the NodeB completes configuring the at least one RB; characterized by further comprising; before the NodeB complete configuring the at least one RB, and after the NodeB transmits the response message in response to the message, the method further comprises: determining, by the NodeB, whether the at least one RB is configured successfully; and in the case where a determining result is that the at least one RB is not configured successfully, initiating, by the NodeB, an exception rollback, wherein the exception rollback refer to the case where the NodeB re-receives the message from the UE. receiving, by a NodeB, a message from user equipment, UE, wherein the message is used for indicating the NodeB to configure at least one RB; and transmitting, by the NodeB, a response message in response to the message to the UE before the NodeB completes configuring the at least one RB; characterized by further comprising; before the NodeB complete configuring the at least one RB, and after the NodeB transmits the response message in response to the message, the method further comprises: determining, by the NodeB, whether the at least one RB is configured successfully; and in the case where a determining result is that the at least one RB is not configured successfully, initiating, by the NodeB, an exception rollback, wherein the exception rollback refer to the case where the NodeB re-receives the message from the UE.
Submarine with at least one first opening between the interior of the submarine and the surrounding water area, wherein the first opening is connected to a first cover, wherein the first opening can be closed with the first cover, wherein the first cover is mounted rotatably about a first axis of rotation, wherein the submarine has a first first rotational drive wherein the first first rotary drive is arranged on the first axis of rotation, wherein the first first rotary drive is designed to rotate the first cover about the first axis of rotation and is connected to the first opening and the first cover for this purpose, wherein the first first rotary drive is driven hydraulically, pneumatically or electrically, pneumatically or electrically driven, characterised in that the submarine has a second first rotary drive, the second first rotary drive being arranged on the first axis of rotation, the first first rotary drive and the second first rotary drive being arranged on opposite sides of the first cover of the first axis of rotation, wherein the second first rotary drive is designed to rotate the first lid about the first axis of rotation and is connected to the first opening and the first lid for this purpose, wherein the second first rotary drive is driven hydraulically, pneumatically or electrically.
Heat-resistant road paving comprising a surface layer of a porous asphalt concrete filled in with a cement mortar, said layer being coupled with a polymeric grid, characterised in that said cement mortar is added with polymeric fibres and in that said asphalt concrete comprises a mixture of stone aggregates comprising: - coarse aggregates having a continuous granule size distribution within the range between 20 mm and 8 mm; - fine aggregates having a continuous granule size distribution within the range between 2 mm and 0.075 mm. - coarse aggregates having a continuous granule size distribution within the range between 20 mm and 8 mm; - fine aggregates having a continuous granule size distribution within the range between 2 mm and 0.075 mm.
Continuous process of DHA enrichment of a solution of fatty acids or of derivatives thereof comprising less than 50% DHA relative to the total fatty acids of the solution or to the derivatives thereof, wherein the process comprises the steps of (a) simultaneous countercurrent injection, into a fractionating column of the flow of the solution of fatty acids or of derivatives thereof and of a flow of supercritical CO 2 at a temperature less than or equal to 70°C and at a pressure between 100*10 5 Pa and 160*10 5 Pa, wherein the rate of supercritical CO 2 is between 30 and 70 and (b) recovery of the residue comprising at least 50% DHA relative to the total fatty acids of the residue or to derivatives thereof, wherein the DHA yield is greater than or equal to 60%. (a) simultaneous countercurrent injection, into a fractionating column of the flow of the solution of fatty acids or of derivatives thereof and of a flow of supercritical CO 2 at a temperature less than or equal to 70°C and at a pressure between 100*10 5 Pa and 160*10 5 Pa, wherein the rate of supercritical CO 2 is between 30 and 70 and (b) recovery of the residue comprising at least 50% DHA relative to the total fatty acids of the residue or to derivatives thereof, wherein the DHA yield is greater than or equal to 60%.
An intravenous catheter apparatus comprising: a catheter hub arranged at a proximal end of a catheter tube, the catheter hub having an inner surface defining a chamber; a needle defining an axial direction and having a needle tip, the needle extending through the chamber and the catheter tube when in a ready position; a needle guard slidably arranged on the needle and received in the chamber when the needle is in the ready position, the needle guard including a base portion and first and second arms (36, 38) extending from the base portion, wherein the first arm is deflected radially outwards by the needle against a restoring force when the needle is in the ready position whereby the needle guard is brought into retaining contact with the catheter hub; and retaining means for retaining the needle guard in the chamber as long as the first arm is in its deflected state, characterized in that the retaining means including a first disc-like retaining protrusion provided on the first arm and having generally parallel proximal and distal faces (60, 62). a catheter hub arranged at a proximal end of a catheter tube, the catheter hub having an inner surface defining a chamber; a needle defining an axial direction and having a needle tip, the needle extending through the chamber and the catheter tube when in a ready position; a needle guard slidably arranged on the needle and received in the chamber when the needle is in the ready position, the needle guard including a base portion and first and second arms (36, 38) extending from the base portion, wherein the first arm is deflected radially outwards by the needle against a restoring force when the needle is in the ready position whereby the needle guard is brought into retaining contact with the catheter hub; and retaining means for retaining the needle guard in the chamber as long as the first arm is in its deflected state, characterized in that the retaining means including a first disc-like retaining protrusion provided on the first arm and having generally parallel proximal and distal faces (60, 62).
A component mounter (10, 10B) for picking up a component supplied by a component supply device and mounting the component on a target object, the component mounter comprising: a head; a holding member configured to hold a component; a first raising and lowering device configured to raise and lower a raising and lowering member with respect to the head; a second raising and lowering device configured to relatively raise and lower the holding member with respect to the raising and lowering member and to be raised and lowered together with the raising and lowering member by the first raising and lowering device; a control device configured to selectively perform a first operation mode of driving the first raising and lowering device to lower the holding member, and a second operation mode of driving the first raising and lowering device and the second raising and lowering device to lower the holding member; and a load measuring section provided on the second raising and lowering device and configured to measure a load applied with respect to the holding member, wherein the control device is configured to perform a cleaning operation of cleaning the holding member or a rejection operation of rejecting a component picked up by the holding member, each of which does not require the load measuring section, via the first operation mode, and perform a pickup operation of using the holding member to pick up the component or a mounting operation of using the holding member to mount the component, each of which requires the load measuring section, via the second operation mode. a head; a holding member configured to hold a component; a first raising and lowering device configured to raise and lower a raising and lowering member with respect to the head; a second raising and lowering device configured to relatively raise and lower the holding member with respect to the raising and lowering member and to be raised and lowered together with the raising and lowering member by the first raising and lowering device; a control device configured to selectively perform a first operation mode of driving the first raising and lowering device to lower the holding member, and a second operation mode of driving the first raising and lowering device and the second raising and lowering device to lower the holding member; and a load measuring section provided on the second raising and lowering device and configured to measure a load applied with respect to the holding member, wherein the control device is configured to perform a cleaning operation of cleaning the holding member or a rejection operation of rejecting a component picked up by the holding member, each of which does not require the load measuring section, via the first operation mode, and perform a pickup operation of using the holding member to pick up the component or a mounting operation of using the holding member to mount the component, each of which requires the load measuring section, via the second operation mode.
A method for optimizing communications relating to machine type communication devices, the method comprising: receiving, at a non-special UE, an indication to operate according to an optimization procedure, wherein the optimization procedure is configured for the non-special UE, and wherein the non-special UE is a member of a group of machine type communication devices that includes a special UE configured to perform an action on behalf of the group of machine type communication devices; and performing, by the non-special UE, the optimization procedure, comprising: performing a cell reselection measurement; performing cell reselection; and monitoring a source cell for a confirmation message, wherein the monitoring is performed without sending an uplink transmission to a network before a time period has expired. receiving, at a non-special UE, an indication to operate according to an optimization procedure, wherein the optimization procedure is configured for the non-special UE, and wherein the non-special UE is a member of a group of machine type communication devices that includes a special UE configured to perform an action on behalf of the group of machine type communication devices; and performing, by the non-special UE, the optimization procedure, comprising: performing a cell reselection measurement; performing cell reselection; and monitoring a source cell for a confirmation message, wherein the monitoring is performed without sending an uplink transmission to a network before a time period has expired. performing a cell reselection measurement; performing cell reselection; and monitoring a source cell for a confirmation message, wherein the monitoring is performed without sending an uplink transmission to a network before a time period has expired.
Robotised system of the type comprising a support to which is attached a set of articulated arms at the end of which is arranged a tool adapted to be in contact with a determined work surface, said system being adapted to move the tool in rotation about the point of contact of the tool with said work surface in accordance with movement instructions originating from a control module adapted to calculate these instructions as a function of the remote movement of a virtual driving tool of said robotised system, the system further being adapted to move the point of contact of the tool in translation, characterised in that this translation is controlled by the control module in polar coordinates, so that said translation of the point of contact of the tool is produced by an angular movement of constituent elements of said support followed by a radial movement of constituent elements of this same support.
Video decoder configured to decode, by block based decoding, pictures of a video from a data stream using spatial intra-picture coding dependency, wherein the video decoder is configured to derive a selected spatial intra-picture coding reach setting out of a plurality of spatial intra-picture coding reach settings from the data stream, wherein a spatial reach of the spatial intra-picture dependency with respect to currently coded blocks of a current picture of the video corresponds to the selected spatial intra-picture coding reach setting, wherein the spatial reach of the spatial intra-picture dependency with respect to currently coded blocks of a current picture of the video is different for blocks of purely intra-predictively coded slices of the video and blocks of inter-predictively coded slices, and wherein the video decoder is configured to derive the selected spatial intra-picture coding reach setting for the purely intra-predictively coded slices of the video and the inter-predictively coded slices. decode, by block based decoding, pictures of a video from a data stream using spatial intra-picture coding dependency, wherein the video decoder is configured to derive a selected spatial intra-picture coding reach setting out of a plurality of spatial intra-picture coding reach settings from the data stream, wherein a spatial reach of the spatial intra-picture dependency with respect to currently coded blocks of a current picture of the video corresponds to the selected spatial intra-picture coding reach setting, wherein the spatial reach of the spatial intra-picture dependency with respect to currently coded blocks of a current picture of the video is different for blocks of purely intra-predictively coded slices of the video and blocks of inter-predictively coded slices, and wherein the video decoder is configured to derive the selected spatial intra-picture coding reach setting for the purely intra-predictively coded slices of the video and the inter-predictively coded slices.
An apparatus comprising at least one processor configured to cause the apparatus to: control a satellite positioning system receiver to obtain position and absolute timing information from a satellite positioning system; control a receiver to tune to a frequency channel with Global System for Mobile communication, GSM, transmission; control a receiver to collect a group of in phase and quadrature, I/Q, samples for the length of 12 GSM frames; perform correlation on the group of I and Q samples; perform peak detection using at least two peak detectors over the group of samples wherein the found peak values are the locations of synchronization bursts, SCH; for the found peaks, determine the timing information, carrier-to-noise ratio, in phase and quadrature values; from the found SCH, determine base station identification code BSIC and frame number for the dominant SCH found; determine time-difference-of-arrival, TDOA, between the found peak values using the determined timing information. control a satellite positioning system receiver to obtain position and absolute timing information from a satellite positioning system; control a receiver to tune to a frequency channel with Global System for Mobile communication, GSM, transmission; control a receiver to collect a group of in phase and quadrature, I/Q, samples for the length of 12 GSM frames; perform correlation on the group of I and Q samples; perform peak detection using at least two peak detectors over the group of samples wherein the found peak values are the locations of synchronization bursts, SCH; for the found peaks, determine the timing information, carrier-to-noise ratio, in phase and quadrature values; from the found SCH, determine base station identification code BSIC and frame number for the dominant SCH found; determine time-difference-of-arrival, TDOA, between the found peak values using the determined timing information.
A fuel reforming system for a vehicle, the system comprising: an EGR (Exhaust Gas Recirculation) line recirculating a part of exhaust gas of an engine towards an intake side; a fuel reformer provided on the EGR line, reforming fuel that is to be supplied to the engine, and supplying the reformed fuel to the engine via the EGR line; an EGR valve provided downstream of the fuel reformer; and the EGR line connects a portion located between a downstream of a turbine of a turbocharger and a catalytic converter to an upstream of a compressor of the turbocharger; characterized in that a pressure control valve is provided in the fuel reformer, and controlling inner pressure of the fuel reformer; and a back pressure valve is provided downstream of the catalytic converter to control an exhaust pressure of the engine. an EGR (Exhaust Gas Recirculation) line recirculating a part of exhaust gas of an engine towards an intake side; a fuel reformer provided on the EGR line, reforming fuel that is to be supplied to the engine, and supplying the reformed fuel to the engine via the EGR line; an EGR valve provided downstream of the fuel reformer; and the EGR line connects a portion located between a downstream of a turbine of a turbocharger and a catalytic converter to an upstream of a compressor of the turbocharger; characterized in that a pressure control valve is provided in the fuel reformer, and controlling inner pressure of the fuel reformer; and a back pressure valve is provided downstream of the catalytic converter to control an exhaust pressure of the engine.