mhurhangee/ep-ind-claims huggingface dataset:
A positive electrode plate, characterized in that it includes a current collector, a first positive electrode active material layer and a second positive electrode active material layer, wherein the second positive electrode active material layer is arranged between the current collector and the first positive electrode active material layer, or the first positive electrode active material layer is arranged between the current collector and the second positive electrode active material layer; the first positive electrode active material layer comprises a first positive electrode active material, a first binder and a first conductive agent, wherein the first positive electrode active material is selected from at least one of Li q CoO 2, Li 1+x Co 1-y-z Ni y Mn z O 2 or carbon-coated Li β Fe α M (1-α) PO 4, wherein 0 ≤ q ≤ 1, 0 ≤ x ≤ 0.1, 0 ≤ y ≤ 0.95, 0 ≤ z ≤ 0.95, 0.2 ≤ α ≤ 1, 1 ≤ β ≤ 1.1, and M is selected from at least one of Cu, Mn, Cr, Zn, Pb, Ca, Co, Ni and Sr; and the second positive electrode active material layer comprises a second positive electrode active material, a second binder and a second conductive agent, wherein the second positive electrode active material is selected from carbon-coated Li β Fe α M (1-α) PO 4, where 0.2 ≤ α ≤ 1, 1 ≤ β ≤ 1.1, M is selected from at least one of Cu, Mn, Cr, Zn, Pb, Ca, Co, Ni, and Sr, and the second positive electrode active material has a diffraction peak A between 29° and 30° in the X-ray diffraction pattern, and a diffraction peak B between 25° and 26°, and the intensity ratio I A /I B of the diffraction peaks satisfies: 0.98 ≤ I A /I B ≤ 1.1, optionally 1.05 ≤ I A /I B ≤ 1.1, wherein the peak intensity ratio is determined using a copper target X-ray diffractometer. the first positive electrode active material layer comprises a first positive electrode active material, a first binder and a first conductive agent, wherein the first positive electrode active material is selected from at least one of Li q CoO 2, Li 1+x Co 1-y-z Ni y Mn z O 2 or carbon-coated Li β Fe α M (1-α) PO 4, wherein 0 ≤ q ≤ 1, 0 ≤ x ≤ 0.1, 0 ≤ y ≤ 0.95, 0 ≤ z ≤ 0.95, 0.2 ≤ α ≤ 1, 1 ≤ β ≤ 1.1, and M is selected from at least one of Cu, Mn, Cr, Zn, Pb, Ca, Co, Ni and Sr; and the second positive electrode active material layer comprises a second positive electrode active material, a second binder and a second conductive agent, wherein the second positive electrode active material is selected from carbon-coated Li β Fe α M (1-α) PO 4, where 0.2 ≤ α ≤ 1, 1 ≤ β ≤ 1.1, M is selected from at least one of Cu, Mn, Cr, Zn, Pb, Ca, Co, Ni, and Sr, and the second positive electrode active material has a diffraction peak A between 29° and 30° in the X-ray diffraction pattern, and a diffraction peak B between 25° and 26°, and the intensity ratio I A /I B of the diffraction peaks satisfies: 0.98 ≤ I A /I B ≤ 1.1, optionally 1.05 ≤ I A /I B ≤ 1.1, wherein the peak intensity ratio is determined using a copper target X-ray diffractometer.
A vehicle rear portion structure comprising: a rear pillar extending in a vehicle vertical direction; a framework member that has a front end portion joined to an upper portion of the rear pillar and that has a rear portion that extends towards a vehicle lower side; a barrier wall at a vehicle inner side of the rear pillar, the barrier wall being joined to the rear pillar and the framework member so as to be watertight, and the barrier wall dividing the vehicle inner side from the vehicle outer side; and a side panel provided at the vehicle outer side of the rear pillar, the framework member and the barrier wall, the side panel structuring a design surface of a vehicle side portion. a rear pillar extending in a vehicle vertical direction; a framework member that has a front end portion joined to an upper portion of the rear pillar and that has a rear portion that extends towards a vehicle lower side; a barrier wall at a vehicle inner side of the rear pillar, the barrier wall being joined to the rear pillar and the framework member so as to be watertight, and the barrier wall dividing the vehicle inner side from the vehicle outer side; and a side panel provided at the vehicle outer side of the rear pillar, the framework member and the barrier wall, the side panel structuring a design surface of a vehicle side portion.
An endoscopic video system for visualizing an internal body cavity, comprising: a first instrument comprising: a light source configured to illuminate the body cavity; and a first camera configured to capture first images of the illuminated body cavity; a second instrument comprising: a surgical tool configured to perform a surgical procedure and comprising a pair of jaws; and a second camera configured to capture second images of the illuminated body cavity; a video control unit configured to receive the captured first and second images (61, 62); and a video display configured to display the captured first and second images (61, 62) transmitted from the video control unit wherein the second instrument further comprises a hand piece and a rotatable shaft connected to a distal end of the hand piece and extending in an axial direction from the hand piece, and configured for insertion into the body cavity, the rotatable shaft having a central axis and being rotatable about the central axis relative to the hand piece; that the surgical tool is rotatable with rotation of the rotatable shaft about the central axis; characterised in that the rotatable shaft houses the second camera, and that the second camera includes an imaging scope extending from the hand piece to the pair of jaws in the axial direction along an interior space of the rotatable shaft. a first instrument comprising: a light source configured to illuminate the body cavity; and a first camera configured to capture first images of the illuminated body cavity; a light source configured to illuminate the body cavity; and a first camera configured to capture first images of the illuminated body cavity; a second instrument comprising: a surgical tool configured to perform a surgical procedure and comprising a pair of jaws; and a second camera configured to capture second images of the illuminated body cavity; a surgical tool configured to perform a surgical procedure and comprising a pair of jaws; and a second camera configured to capture second images of the illuminated body cavity; a video control unit configured to receive the captured first and second images (61, 62); and a video display configured to display the captured first and second images (61, 62) transmitted from the video control unit the second instrument further comprises a hand piece and a rotatable shaft connected to a distal end of the hand piece and extending in an axial direction from the hand piece, and configured for insertion into the body cavity, the rotatable shaft having a central axis and being rotatable about the central axis relative to the hand piece; that the surgical tool is rotatable with rotation of the rotatable shaft about the central axis; the rotatable shaft houses the second camera, and that the second camera includes an imaging scope extending from the hand piece to the pair of jaws in the axial direction along an interior space of the rotatable shaft.
Method for collecting windfall fruit and similar objects from the ground with a collecting carriage, in which the collecting carriage is moved over the ground in a direction of travel, wherein the windfall fruit is accelerated by a pick-up roller counter to the direction of travel and conveyed onto a guide grid, and is finally guided from the guide grid into a collecting basket, wherein the windfall fruit is thrown through a stripping device upstream of the collecting basket in order to separate out foreign bodies, characterised in that the windfall fruit is thrown into the collecting basket after the guide grid via a gap.
System for pressurising parallel batch reactors, which system comprises a plurality of reactors and at least one movable hollow needle connectable to a pressure source, wherein a reactor comprises: - a reactor body having a volume of 0.5-50 ml and a reactor mouth with a diameter of between 2 and 30 mm; - a removable reactor closure system for covering said reactor mouth; and wherein said hollow needle has an outer diameter of 2 millimeter or less, and which hollow needle has an opening of the inner canal of the needle, which opening is located at the lateral side of the needle at a distance from the tip of the needle equal or larger than the diameter of the needle, to at most 5 cm from the tip of the needle, wherein the removable reactor closure system for covering said reactor mouth comprises: - an elastomeric septum having a thickness of at least 200% of the diameter of the hollow needle, - and a rigid member covering the septum at the reactor mouth except for an opening in the rigid member leaving the septum exposed to the atmosphere, which opening has a diameter of not more than 200% of the diameter of the hollow needle, wherein the removable reactor closure system comprises no moving parts, and wherein the elastomeric septum has a Shore A hardness of less than 75. - a reactor body having a volume of 0.5-50 ml and a reactor mouth with a diameter of between 2 and 30 mm; - a removable reactor closure system for covering said reactor mouth; and wherein said hollow needle has an outer diameter of 2 millimeter or less, and which hollow needle has an opening of the inner canal of the needle, which opening is located at the lateral side of the needle at a distance from the tip of the needle equal or larger than the diameter of the needle, to at most 5 cm from the tip of the needle, wherein the removable reactor closure system for covering said reactor mouth comprises: - an elastomeric septum having a thickness of at least 200% of the diameter of the hollow needle, - and a rigid member covering the septum at the reactor mouth except for an opening in the rigid member leaving the septum exposed to the atmosphere, which opening has a diameter of not more than 200% of the diameter of the hollow needle, - an elastomeric septum having a thickness of at least 200% of the diameter of the hollow needle, - and a rigid member covering the septum at the reactor mouth except for an opening in the rigid member leaving the septum exposed to the atmosphere, which opening has a diameter of not more than 200% of the diameter of the hollow needle, wherein the removable reactor closure system comprises no moving parts, and wherein the elastomeric septum has a Shore A hardness of less than 75.
A structure for mounting an electric storage apparatus comprising: the electric storage apparatus including an electric storage element outputting an energy for use in running of a vehicle and a case for housing the electric storage element; characterized by further comprising: a vehicle body including a recessed portion housing the electric storage apparatus, the recessed portion being formed by recessing a portion of a floor panel of the vehicle; a fastening member fixing the electric storage apparatus to the recessed portion; a reinforcement disposed above the electric storage apparatus which is fixed in the recessed portion, the reinforcement being fixed to the vehicle body; and an elastic member disposed between the reinforcement and the electric storage apparatus, wherein the reinforcement presses the electric storage apparatus against the recessed portion through the elastic member. the electric storage apparatus including an electric storage element outputting an energy for use in running of a vehicle and a case for housing the electric storage element; characterized by further comprising: a vehicle body including a recessed portion housing the electric storage apparatus, the recessed portion being formed by recessing a portion of a floor panel of the vehicle; a fastening member fixing the electric storage apparatus to the recessed portion; a reinforcement disposed above the electric storage apparatus which is fixed in the recessed portion, the reinforcement being fixed to the vehicle body; and an elastic member disposed between the reinforcement and the electric storage apparatus, a vehicle body including a recessed portion housing the electric storage apparatus, the recessed portion being formed by recessing a portion of a floor panel of the vehicle; a fastening member fixing the electric storage apparatus to the recessed portion; a reinforcement disposed above the electric storage apparatus which is fixed in the recessed portion, the reinforcement being fixed to the vehicle body; and an elastic member disposed between the reinforcement and the electric storage apparatus, wherein the reinforcement presses the electric storage apparatus against the recessed portion through the elastic member.
A method performed by a user equipment, UE, (110, 600), the method comprising: receiving a discontinuous reception, DRX, configuration; receiving a monitoring configuration of a physical downlink control channel, PDCCH, carrying a power saving downlink control information, DCI, format, wherein the received monitoring configuration includes an indication of a UE-specific offset value with respect to a starting time of a DRX cycle of the DRX configuration, wherein the UE-specific offset value is specific to the UE (110, 600) of a group of UEs which includes the UE (110, 600), and at least one search space configuration which includes information of a PDCCH monitoring periodicity, a PDCCH monitoring offset, and one or more PDCCH monitoring symbols within a slot; identifying one or more monitoring occasions of at least one search space of the PDCCH carrying the power saving DCI format based on the monitoring configuration, which includes the UE-specific offset value which is specific to the UE (110, 600); detecting the power saving DCI format at one of the one or more monitoring occasions; and determining whether to start a drx-onDurationTimer in a following DRX cycle of the DRX configuration based on a wake-up indication of the power saving DCI format. receiving a discontinuous reception, DRX, configuration; receiving a monitoring configuration of a physical downlink control channel, PDCCH, carrying a power saving downlink control information, DCI, format, wherein the received monitoring configuration includes an indication of a UE-specific offset value with respect to a starting time of a DRX cycle of the DRX configuration, wherein the UE-specific offset value is specific to the UE (110, 600) of a group of UEs which includes the UE (110, 600), and at least one search space configuration which includes information of a PDCCH monitoring periodicity, a PDCCH monitoring offset, and one or more PDCCH monitoring symbols within a slot; identifying one or more monitoring occasions of at least one search space of the PDCCH carrying the power saving DCI format based on the monitoring configuration, which includes the UE-specific offset value which is specific to the UE (110, 600); detecting the power saving DCI format at one of the one or more monitoring occasions; and determining whether to start a drx-onDurationTimer in a following DRX cycle of the DRX configuration based on a wake-up indication of the power saving DCI format.
An apparatus to be employed as a reconfigurable equipment, RE 200R, the apparatus comprising: radio frequency, RF, circuitry configured to: transmit, to a radio application store, "RadioApp Store", a request for a radio application, RA, package, RAP for altering how the RE uses its radio technology; and receive the RAP from the RadioApp Store when the RadioApp store verifies the RAP as being compatible with the RE; and baseband circuitry with onboard memory circuitry, the baseband circuitry to execute instructions to: decrypt the RAP using a key comprising an RE type ID of the RE when the RA is bound to a declaration of conformity, DoC, via the RE type ID, wherein the RE type ID is a combination of a hardware platform ID and an original equipment manufacturer, OEM, ID; obtain the declaration of Conformity, DoC associated with the RE, and determine whether the DoC authorizes installation of an RA component based on one or more other RAs implemented by the RE; and install a radio application, RA, code of the RAP when the DoC contains a machine-readable content that authorizes installation of the RA code based on one or more other RAs implemented by the RE. radio frequency, RF, circuitry configured to: transmit, to a radio application store, "RadioApp Store", a request for a radio application, RA, package, RAP for altering how the RE uses its radio technology; and receive the RAP from the RadioApp Store when the RadioApp store verifies the RAP as being compatible with the RE; and transmit, to a radio application store, "RadioApp Store", a request for a radio application, RA, package, RAP for altering how the RE uses its radio technology; and receive the RAP from the RadioApp Store when the RadioApp store verifies the RAP as being compatible with the RE; baseband circuitry with onboard memory circuitry, the baseband circuitry to execute instructions to: decrypt the RAP using a key comprising an RE type ID of the RE when the RA is bound to a declaration of conformity, DoC, via the RE type ID, wherein the RE type ID is a combination of a hardware platform ID and an original equipment manufacturer, OEM, ID; obtain the declaration of Conformity, DoC associated with the RE, and determine whether the DoC authorizes installation of an RA component based on one or more other RAs implemented by the RE; and install a radio application, RA, code of the RAP when the DoC contains a machine-readable content that authorizes installation of the RA code based on one or more other RAs implemented by the RE. decrypt the RAP using a key comprising an RE type ID of the RE when the RA is bound to a declaration of conformity, DoC, via the RE type ID, wherein the RE type ID is a combination of a hardware platform ID and an original equipment manufacturer, OEM, ID; obtain the declaration of Conformity, DoC associated with the RE, and determine whether the DoC authorizes installation of an RA component based on one or more other RAs implemented by the RE; and install a radio application, RA, code of the RAP when the DoC contains a machine-readable content that authorizes installation of the RA code based on one or more other RAs implemented by the RE.
A method for creating a protection of a lock of a motor vehicle against external influences, according to which method a lock is at first mounted on a constituent unit of the motor vehicle and afterwards the lock, with the exception of the lock inlet area, is completely or partially covered with a film and in which the film is adapted to the external contours of the lock by means of shrinkage.
A method comprising the steps of: contacting a feed stream comprising a methacrolein precursor comprising isobutene or t-butanol and a first oxidizing stream comprising oxygen in the presence of a first oxidation catalyst to form an unsaturated aldehyde stream comprising methacrolein, wherein the first oxidation catalyst is a mixed metal oxide, contacting an alkene stream comprising propene and a syn gas stream comprising hydrogen and carbon monoxide in the presence of a hydroformylation catalyst to form a saturated aldehyde stream comprising n-butanal and iso-butanal, separating the saturated aldehyde stream into an isobutanal-containing stream (IBA-stream) comprising iso-butanal and an n-butanal-containing stream (NBA-stream) comprising n-butanal, and oxidizing the unsaturated aldehyde stream and the IBA-stream simultaneously with a second oxidizing stream comprising oxygen in the presence of a second oxidation catalyst to produce a methacrylic acid-containing stream (MAA-stream) comprising methacrylic acid, wherein the second oxidation catalyst is a heteropolyacid catalyst comprising at least Mo, P, and V. contacting a feed stream comprising a methacrolein precursor comprising isobutene or t-butanol and a first oxidizing stream comprising oxygen in the presence of a first oxidation catalyst to form an unsaturated aldehyde stream comprising methacrolein, wherein the first oxidation catalyst is a mixed metal oxide, contacting an alkene stream comprising propene and a syn gas stream comprising hydrogen and carbon monoxide in the presence of a hydroformylation catalyst to form a saturated aldehyde stream comprising n-butanal and iso-butanal, separating the saturated aldehyde stream into an isobutanal-containing stream (IBA-stream) comprising iso-butanal and an n-butanal-containing stream (NBA-stream) comprising n-butanal, and oxidizing the unsaturated aldehyde stream and the IBA-stream simultaneously with a second oxidizing stream comprising oxygen in the presence of a second oxidation catalyst to produce a methacrylic acid-containing stream (MAA-stream) comprising methacrylic acid, wherein the second oxidation catalyst is a heteropolyacid catalyst comprising at least Mo, P, and V.
A wellbore plug isolation system comprising: (a) a restriction sleeve member configured to fit within a wellbore casing and configured to be positioned by a wellbore setting tool (2002; 2301; 3810; 3820; 3830) in the wellbore casing at any location in the wellbore casing, including locations in the wellbore casing where there is no internal structure of the wellbore casing for positioning the restriction sleeve member; and (b) a restriction plug element (0305; 0702; 0902) configured to position to seat against said restriction sleeve member; wherein either the restriction sleeve member or the restriction plug element (0305; 0702; 0902) has flow channels therein for production fluid flow there through. (a) a restriction sleeve member configured to fit within a wellbore casing and configured to be positioned by a wellbore setting tool (2002; 2301; 3810; 3820; 3830) in the wellbore casing at any location in the wellbore casing, including locations in the wellbore casing where there is no internal structure of the wellbore casing for positioning the restriction sleeve member; and (b) a restriction plug element (0305; 0702; 0902) configured to position to seat against said restriction sleeve member;
A method for managing the streaming of digital media content in a network that streams digital media content to clients via multicasting and unicasting, the method comprising: establishing one real time streaming protocol RTSP session to secure the resources necessary to provide either one of two unicast streams to a client; establishing a first unicast stream for the client; establishing a second unicast stream for the client, the two unicast streams being concurrently maintained in the RTSP session for the client even though the client only plays out one unicast stream at a time; streaming one of the two unicast streams to the client using the RTSP session in response to a playout status of the unicast stream at the client, wherein only the unicast stream that is intended for real-time playout by the client is streamed to the client; and switching to streaming the other one of the two unicast streams when the playout status changes to indicate that the second unicast stream is intended for real-time playout instead of the first unicast stream, wherein the other one of the two unicast streams is streamed using the same RTSP session. establishing one real time streaming protocol RTSP session to secure the resources necessary to provide either one of two unicast streams to a client; establishing a first unicast stream for the client; establishing a second unicast stream for the client, the two unicast streams being concurrently maintained in the RTSP session for the client even though the client only plays out one unicast stream at a time; streaming one of the two unicast streams to the client using the RTSP session in response to a playout status of the unicast stream at the client, wherein only the unicast stream that is intended for real-time playout by the client is streamed to the client; and switching to streaming the other one of the two unicast streams when the playout status changes to indicate that the second unicast stream is intended for real-time playout instead of the first unicast stream, wherein the other one of the two unicast streams is streamed using the same RTSP session.