mhurhangee/ep-ind-claims huggingface dataset:
A micro-hybrid battery system, comprising: - a housing comprising a first compartment and a second compartment; - a lithium ion micro-hybrid battery module, disposed in the first compartment, comprising: - a first pair of battery terminals; - a lithium ion battery cell coupled to the first pair of battery terminals, wherein the lithium ion battery cell comprises a cathode and an anode, wherein the anode comprises an anode active material comprising a titanate-based oxide with spinel structure and the cathode comprises a cathode active material comprising high voltage spinel having a formula LiMn 2-x M x O 4, and wherein M is nickel, chromium, iron, a transition metal, or any combination thereof and x is between 0.35 and 0.65; and - energy storage unit (30, 120) disposed in the second compartment coupled to a second pair of battery terminals (48, 182); - a control circuit configured to enable the lithium ion battery cell to be electrically connected in parallel to the energy storage unit (30, 120) such that the lithium ion micro-hybrid battery module is configured to work in a start-stop application, wherein the lithium ion micro-hybrid battery module and the energy storage unit (30, 120) are disposed in an enclosure (50, 70, 154) and enclosed by a cover, wherein the cover comprises an in-molded bus configured to couple the lithium ion battery module and the energy storage unit (30, 120) in parallel to one another, when the cover is disposed over the enclosure (50, 70, 154). - a housing comprising a first compartment and a second compartment; - a lithium ion micro-hybrid battery module, disposed in the first compartment, comprising: - a first pair of battery terminals; - a lithium ion battery cell coupled to the first pair of battery terminals, wherein the lithium ion battery cell comprises a cathode and an anode, wherein the anode comprises an anode active material comprising a titanate-based oxide with spinel structure and the cathode comprises a cathode active material comprising high voltage spinel having a formula LiMn 2-x M x O 4, and wherein M is nickel, chromium, iron, a transition metal, or any combination thereof and x is between 0.35 and 0.65; and - a first pair of battery terminals; - a lithium ion battery cell coupled to the first pair of battery terminals, wherein the lithium ion battery cell comprises a cathode and an anode, wherein the anode comprises an anode active material comprising a titanate-based oxide with spinel structure and the cathode comprises a cathode active material comprising high voltage spinel having a formula LiMn 2-x M x O 4, and wherein M is nickel, chromium, iron, a transition metal, or any combination thereof and x is between 0.35 and 0.65; and - energy storage unit (30, 120) disposed in the second compartment coupled to a second pair of battery terminals (48, 182); - a control circuit configured to enable the lithium ion battery cell to be electrically connected in parallel to the energy storage unit (30, 120) such that the lithium ion micro-hybrid battery module is configured to work in a start-stop application,
A combination of (i) an anti-HER-3-antibody comprising a heavy chain amino acid sequence comprising a CDRH1 represented by GGSFSGYYWS, a CDRH2 represented by EINHSGSTNYNPSLKS, and a CDRH3 represented by DKWTWYFDL, and a light chain amino acid sequence comprising a CDRL1 represented by RSSQSVLYSSSNRNYLA, a CDRL2 represented by WASTRES and a CDRL3 represented by QQYYSTPRT; and (ii) an anti-EGFR-antibody, for use in the prevention or treatment of a hyperproliferative disease. (i) an anti-HER-3-antibody comprising a heavy chain amino acid sequence comprising a CDRH1 represented by GGSFSGYYWS, a CDRH2 represented by EINHSGSTNYNPSLKS, and a CDRH3 represented by DKWTWYFDL, and a light chain amino acid sequence comprising a CDRL1 represented by RSSQSVLYSSSNRNYLA, a CDRL2 represented by WASTRES and a CDRL3 represented by QQYYSTPRT; and (ii) an anti-EGFR-antibody, for use in the prevention or treatment of a hyperproliferative disease.
A transistor comprising: a substrate having a groove formed from a main surface of the substrate into the substrate; a drift region of a first conductivity type in the substrate, the drift region having a portion disposed at a bottom part of the groove; a well region of a second conductivity type in the substrate, the well region being disposed on one side of the groove, the well region being connected to the drift region; a source region of the first conductivity type, the source region being disposed between a surface of the well region and a sidewall of the groove on the one side of the groove and being spaced from the drift region by the well region; a drain region of the first conductivity type, the drain region being disposed at the bottom of the groove separated from the well region by the drift region and in contact with the drift region; and a gate electrode opposed to the well region, the gate electrode being disposed in a gate trench that has an opening in the upper surfaces of the well region and the source region and extends in a depth direction of the groove, a first main electrode disposed on a surface of the source region in the groove on said sidewall and electrically connected to the source region; and a second main electrode disposed in the groove opposed to the first main electrode and electrically connected to the drain region; and an isolation insulating film disposed between the first main electrode and the second main electrode and filling the inside of the groove. a substrate having a groove formed from a main surface of the substrate into the substrate; a drift region of a first conductivity type in the substrate, the drift region having a portion disposed at a bottom part of the groove; a well region of a second conductivity type in the substrate, the well region being disposed on one side of the groove, the well region being connected to the drift region; a source region of the first conductivity type, the source region being disposed between a surface of the well region and a sidewall of the groove on the one side of the groove and being spaced from the drift region by the well region; a drain region of the first conductivity type, the drain region being disposed at the bottom of the groove separated from the well region by the drift region and in contact with the drift region; and a gate electrode opposed to the well region, the gate electrode being disposed in a gate trench that has an opening in the upper surfaces of the well region and the source region and extends in a depth direction of the groove, a first main electrode disposed on a surface of the source region in the groove on said sidewall and electrically connected to the source region; and a second main electrode disposed in the groove opposed to the first main electrode and electrically connected to the drain region; and an isolation insulating film disposed between the first main electrode and the second main electrode and filling the inside of the groove.
A process for isomerizing Z -1,1,1,4,4,4-hexafluoro-2-butene to E -1,1,1,4,4,4-hexafluoro-2-butene comprising: (a) providing a starting material comprising Z -1,1,1,4,4,4-hexafluoro-2-butene; (b) contacting the starting material with a suitable catalyst in a reaction zone to produce E -HFO-1336mzz; and optionally, (c) recovering the E -HFO-1336mzz, wherein the contacting step is performed in the gas phase, and wherein the suitable catalyst comprises chromium oxyfluoride and contains less than 50% by weight alumina, and wherein the temperature in the reaction zone is in the range from 150°C to 400°C. (a) providing a starting material comprising Z -1,1,1,4,4,4-hexafluoro-2-butene; (b) contacting the starting material with a suitable catalyst in a reaction zone to produce E -HFO-1336mzz; and optionally, (c) recovering the E -HFO-1336mzz, wherein the contacting step is performed in the gas phase, and wherein the suitable catalyst comprises chromium oxyfluoride and contains less than 50% by weight alumina, and wherein the temperature in the reaction zone is in the range from 150°C to 400°C.
An apparatus comprising: a catheter configured for placement within a body lumen of a human patient; an expandable balloon at a distal portion of the catheter, wherein the expandable balloon is configured to vary between a delivery configuration and a deployed configuration sized to fit within the body lumen; a first pair of bipolar contacts attached to the expandable balloon; and a second pair of bipolar contacts attached to the expandable balloon, wherein the first pair of bipolar contacts and the second pair of bipolar contacts are axially and circumferentially offset from one another when the expandable balloon is in the deployed configuration, wherein each of the first pair of bipolar contacts and the second pair of bipolar contacts is configured to deliver thermal energy to less than a full circumference of the body lumen of the patient. a catheter configured for placement within a body lumen of a human patient; an expandable balloon at a distal portion of the catheter, wherein the expandable balloon is configured to vary between a delivery configuration and a deployed configuration sized to fit within the body lumen; a first pair of bipolar contacts attached to the expandable balloon; and a second pair of bipolar contacts attached to the expandable balloon, wherein the first pair of bipolar contacts and the second pair of bipolar contacts are axially and circumferentially offset from one another when the expandable balloon is in the deployed configuration, wherein each of the first pair of bipolar contacts and the second pair of bipolar contacts is configured to deliver thermal energy to less than a full circumference of the body lumen of the patient.
A method to be performed by a wireless communication station, the method comprising: generating a Physical Layer Protocol Data Unit, PPDU, comprising a first header field and a second header, Header A, field after the first header field, the first header field comprising a length field to be decoded by Directional Multi Gigabit, DMG, stations, the Header A field comprising a first field having a value according to whether or not the PPDU is to include a third header, Header B, field after the Header A field, the Header A field comprising at least one second field to indicate a channel bandwidth comprising one channel or two or more channels to be bonded; and transmitting said PPDU over the channel bandwidth in a frequency band above 45 Gigahertz, GHz. generating a Physical Layer Protocol Data Unit, PPDU, comprising a first header field and a second header, Header A, field after the first header field, the first header field comprising a length field to be decoded by Directional Multi Gigabit, DMG, stations, the Header A field comprising a first field having a value according to whether or not the PPDU is to include a third header, Header B, field after the Header A field, the Header A field comprising at least one second field to indicate a channel bandwidth comprising one channel or two or more channels to be bonded; and transmitting said PPDU over the channel bandwidth in a frequency band above 45 Gigahertz, GHz.
An outlet element for a centrifugal separator, said element having an outlet housing and a connecting piece, the connecting piece providing for rotatable connection of the outlet element to a base of the centrifugal separator for the outlet element to be rotatable around an adjustment axis and the outlet housing to extend rear of said base, the outlet housing comprising a side wall offset from said adjustment axis, an outlet opening provided in said side wall, said outlet opening comprising a weir edge, whereby the outlet element is configured for said weir edge to be a trailing edge of the outlet opening relative to a rotational movement of a bowl of a centrifugal separator, when the outlet element is installed in the centrifugal separator.
A method to achieve leakage current compensation for an ultra low power low drop-out LDO regulator without impacting topology of LDO regulation loop and loop compensation scheme, said LDO regulator including a pass transistor; characterized in that the method further comprises the following steps: providing a system comprising a proportional-to-absolute temperature - PTAT - type sink current generator, wherein the PTAT sink current generator is connected to an LDO output node (Vout); deploying the PTAT type sink current generator on a same silicon and same chip as the LDO regulator in order to achieve a same thermal temperature; and providing sink current by the PTAT type sink current generator as required to compensate leakage current of LDO pass transistor providing a system comprising a proportional-to-absolute temperature - PTAT - type sink current generator, wherein the PTAT sink current generator is connected to an LDO output node (Vout); deploying the PTAT type sink current generator on a same silicon and same chip as the LDO regulator in order to achieve a same thermal temperature; and providing sink current by the PTAT type sink current generator as required to compensate leakage current of LDO pass transistor
Use of tannins for improving the filmogenic properties and retention time period of a glycerol preparation for topical application on semi-permeable biological membranes, the tannins having the capacity to bind to glycerol so that the glycerol has filmogen quality.
A data generation method, performed by a data generation device, comprising: generating video data according to an Advanced Video Coding, AVC, standard and a second opto-electrical transfer function, OETF; storing video usability information, VUI, including a first value indicating a first OETF; and storing supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF and the second OETF support a standard dynamic range, SDR, and a high dynamic range, HDR, respectively; the first value is to be referred to by a decoding device that does not support HDR, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture; wherein the video data covers a second luminance dynamic range of the HDR wider than a first luminance dynamic range of the SDR and has compatibility with the decoding device that does not support HDR such that the decoding device reproduces the video data based on SDR. generating video data according to an Advanced Video Coding, AVC, standard and a second opto-electrical transfer function, OETF; storing video usability information, VUI, including a first value indicating a first OETF; and storing supplemental enhancement information, SEI, including a second value indicating the second OETF, wherein VUI and SEI are included in the video data; wherein the first OETF and the second OETF support a standard dynamic range, SDR, and a high dynamic range, HDR, respectively; the first value is to be referred to by a decoding device that does not support HDR, when the decoding device decodes the video data; and the second OETF has compatibility with the first OETF; wherein the first OETF is an OETF defined in one of BT. 709 and BT. 2020; and the SEI is in an IRAP NAL unit or an I-picture; wherein the video data covers a second luminance dynamic range of the HDR wider than a first luminance dynamic range of the SDR and has compatibility with the decoding device that does not support HDR such that the decoding device reproduces the video data based on SDR.
A metal roofing material (1, 11) for being arranged on an eave-side metal roofing material in an eave-ridge direction of a roof so as to overlap with the eave-side metal roofing material, the metal roofing material comprising: a front substrate made of a metal sheet and comprising a body portion formed in a box shape; a back substrate arranged on the back side of the front substrate so as to cover an opening of the body portion; a core material filling the space between the body portion and the back substrate; characterized in that the metal roofing material further comprises at least one reinforcing plate that is embedded in the core material at a position closer to the back substrate than a top plate of the body portion or that is disposed in contact with the outer surface of the back substrate. a front substrate made of a metal sheet and comprising a body portion formed in a box shape; a back substrate arranged on the back side of the front substrate so as to cover an opening of the body portion; a core material filling the space between the body portion and the back substrate; characterized in that the metal roofing material further comprises at least one reinforcing plate that is embedded in the core material at a position closer to the back substrate than a top plate of the body portion or that is disposed in contact with the outer surface of the back substrate.
An airbag arrangement for a vehicle, said airbag arrangement comprising - an inflatable first airbag chamber (5, 5', 5"), and - an inflatable second airbag chamber (7, 7', 7"), said second airbag chamber (7, 7', 7") forms a separate, optionally inflatable, airbag chamber connected to said first airbag chamber (5, 5', 5"), said second airbag chamber (7, 7', 7") is adapted to in a deployed state at least partly cover a portion of an A-pillar of said vehicle and/or a space below the A-pillar, said connection between said first airbag chamber (5, 5', 5") and said second airbag chamber (7, 7', 7") forms at least one gas duct, said first airbag chamber (5, 5', 5") comprises an inflator, such as a gas generator, for at least partly inflating said first airbag chamber (5, 5', 5"), said inflator also being used for inflating said second airbag chamber (7, 7', 7"), said first airbag chamber forms a side impact protection airbag comprising a front main chamber and a rear main chamber, said second airbag chamber being connected to said front main chamber, characterized in that said airbag arrangement further comprising a valve system, wherein the inflation of said rear main chamber, said front main chamber and said second airbag chamber is controlled by said valve system, said valve system comprising at least one valve (17, 23) in between said rear and front main chamber and at least one valve between said front main chamber and said second airbag chamber. - an inflatable first airbag chamber (5, 5', 5"), and - an inflatable second airbag chamber (7, 7', 7"), said second airbag chamber (7, 7', 7") forms a separate, optionally inflatable, airbag chamber connected to said first airbag chamber (5, 5', 5"), said second airbag chamber (7, 7', 7") is adapted to in a deployed state at least partly cover a portion of an A-pillar of said vehicle and/or a space below the A-pillar, said connection between said first airbag chamber (5, 5', 5") and said second airbag chamber (7, 7', 7") forms at least one gas duct, said first airbag chamber (5, 5', 5") comprises an inflator, such as a gas generator, for at least partly inflating said first airbag chamber (5, 5', 5"), said inflator also being used for inflating said second airbag chamber (7, 7', 7"), said first airbag chamber forms a side impact protection airbag comprising a front main chamber and a rear main chamber, said second airbag chamber being connected to said front main chamber, characterized in that said airbag arrangement further comprising a valve system, wherein the inflation of said rear main chamber, said front main chamber and said second airbag chamber is controlled by said valve system, said valve system comprising at least one valve (17, 23) in between said rear and front main chamber and at least one valve between said front main chamber and said second airbag chamber.
A composite liftgate system, comprising: an inner panel formed of a structural thermoplastic composite material; an outer panel connected to the inner panel through the use of structural adhesive, the outer panel having a show surface; at least one structural channel comprising: a first channel extending horizontally near an opening for a rear liftgate window formed in the inner panel; at least one second channel, where the at least one first channel is formed in the at least one second channel; and at least one first pair of channels extending substantially in diagonal directions; and a plurality of structural reinforcement ribs (110, 112) molded into the inner panel to manage loading paths applied to the inner panel, wherein at least a first plurality of the structural reinforcement ribs (110, 112) is connected to the first pair of channels; and a second plurality of the structural reinforcement ribs (110, 112) is connected to the opposite side of the first pair of channels; and a plurality of brackets connected to the inner panel through the use of structural adhesive to add structure and strength where needed in predetermined locations. an inner panel formed of a structural thermoplastic composite material; an outer panel connected to the inner panel through the use of structural adhesive, the outer panel having a show surface; at least one structural channel comprising: a first channel extending horizontally near an opening for a rear liftgate window formed in the inner panel; at least one second channel, where the at least one first channel is formed in the at least one second channel; and at least one first pair of channels extending substantially in diagonal directions; and a first channel extending horizontally near an opening for a rear liftgate window formed in the inner panel; at least one second channel, where the at least one first channel is formed in the at least one second channel; and at least one first pair of channels extending substantially in diagonal directions; and a plurality of structural reinforcement ribs (110, 112) molded into the inner panel to manage loading paths applied to the inner panel, wherein at least a first plurality of the structural reinforcement ribs (110, 112) is connected to the first pair of channels; and a second plurality of the structural reinforcement ribs (110, 112) is connected to the opposite side of the first pair of channels; and a plurality of brackets connected to the inner panel through the use of structural adhesive to add structure and strength where needed in predetermined locations.