mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling the pressure of an electropneumatic switching device for an automatic transmission having pneumatic selector and/or switching cylinders , having a pneumatic clutch cylinder of a friction clutch arranged between the drive shaft of a drive motor and an input shaft of the transmission, and having a pneumatic brake cylinder of a transmission brake acting on the input shaft of the transmission, wherein the clutch cylinder and the brake cylinder can each be alternately connected to a pressure conducting main connecting line or a pressure-less ventilation line via a valve arrangement , and wherein the valve arrangement comprises at least one inlet valve formed as a 2/2 way solenoid valve and one outlet valve formed as a 2/2 way solenoid valve, wherein the supply pressure (pv _ist ) applied in the main connecting line is determined by means of a pressure sensor connected there or via an operating parameter that can be retrieved in a data bus as well as being compared to a predefined maximum pressure (pv _max ), wherein, when the supply pressure (pv _ist ) exceeds the maximum pressure (pv _max ) (pv _ist > pv _max ), the supply pressure (pv _ist ) is reduced by the release of compressed air via the valve arrangement of the clutch cylinder and is set or adjusted (pv _soll = pv _max ; pv _soll = pv _max - Δpv) to the maximum pressure (pv _max ) or to a target supply pressure (pv _soll ) lying below the maximum pressure (pv _max ) by a pre-determined pressure difference (Δpv), that the optional pressure reduction occurs immediately before and during switching operations by means of the valve arrangement , which is not provided for actuating the transmission brake during the respective switching operation, characterized in that in one design of the relevant valve arrangement having only one inlet valve and only one outlet valve , which are formed as timer valves and have the same nominal widths, the outlet valve is opened with a greater pulse width than the inlet valve for pressure reduction.
A method of manufacturing a light emitting device comprising: preparing a light-transmissive member including a light reflective sheet and a plurality of color conversion material layers , the light reflective sheet having a plurality of through-holes, the plurality of color conversion material layers including a light-transmissive resin containing a color conversion material, the plurality of color conversion material layers being disposed in the plurality of through-holes, preparing a plurality of light emitting elements , disposing the plurality of color conversion material layers on the plurality of light emitting elements , covering, after the disposing, side surfaces of the plurality of light emitting elements integrally with a light reflective member , and cutting the light-reflective member and the light-reflective sheet , wherein the plurality of through-holes and the plurality of color conversion material layers are at positions corresponding to the light emitting elements , and the disposing of the plurality of color conversion material layers on the plurality of light emitting elements includes collectively fixing the color conversion material layers to the light emitting elements respectively. preparing a light-transmissive member including a light reflective sheet and a plurality of color conversion material layers , the light reflective sheet having a plurality of through-holes, the plurality of color conversion material layers including a light-transmissive resin containing a color conversion material, the plurality of color conversion material layers being disposed in the plurality of through-holes, preparing a plurality of light emitting elements , disposing the plurality of color conversion material layers on the plurality of light emitting elements , covering, after the disposing, side surfaces of the plurality of light emitting elements integrally with a light reflective member , and cutting the light-reflective member and the light-reflective sheet , wherein the plurality of through-holes and the plurality of color conversion material layers are at positions corresponding to the light emitting elements , and the disposing of the plurality of color conversion material layers on the plurality of light emitting elements includes collectively fixing the color conversion material layers to the light emitting elements respectively.
A solid state transducer (SST) die , comprising: a transducer structure having a first side and a second side opposite the first side, a first conductivity type semiconductor material at the first side and a second conductivity type semiconductor material at the second side; a plurality of first contacts , with individual first contacts electrically coupled to the first conductivity type semiconductor material; a plurality of second contacts , with second contacts electrically coupled to the second conductivity type semiconductor material, the second contacts extending from the first side of the transducer structure to the second conductivity type semiconductor material; an interconnect formed between at least one first contact and one second contact; a barrier metal material over the first contacts, the second contacts and the interconnect; and a metal substrate over the barrier metal material at the first side, the metal substrate comprising a thermal pad and external bonding sites electrically and vertically coupled to a first external terminal , wherein the first external terminal is an exposed portion of one of the first contacts and a second external terminal in electrical communication with one of the second contacts. a transducer structure having a first side and a second side opposite the first side, a first conductivity type semiconductor material at the first side and a second conductivity type semiconductor material at the second side; a plurality of first contacts , with individual first contacts electrically coupled to the first conductivity type semiconductor material; a plurality of second contacts , with second contacts electrically coupled to the second conductivity type semiconductor material, the second contacts extending from the first side of the transducer structure to the second conductivity type semiconductor material; an interconnect formed between at least one first contact and one second contact; a barrier metal material over the first contacts, the second contacts and the interconnect; and a metal substrate over the barrier metal material at the first side, the metal substrate comprising a thermal pad and external bonding sites electrically and vertically coupled to a first external terminal , wherein the first external terminal is an exposed portion of one of the first contacts and a second external terminal in electrical communication with one of the second contacts.
Pouch cell having a positive contact lug and a negative contact lug , by means of which contact lugs electrical contact can be made with the pouch cell and said pouch cell can be charged and discharged in this way, wherein the pouch cell is of planar design and has a cell top side as well as a cell bottom side which is situated opposite the cell top side , characterized in that the positive contact lug has a conductive coating on the cell top side and an insulating coating on the cell bottom side and the negative contact lug has an insulating coating on the cell top side and a conductive coating on the cell bottom side, or vice versa, in that the positive contact lug has an insulating coating on the cell top side and a conductive coating on the cell bottom side and the negative contact lug has a conductive coating on the cell top side and an insulating coating on the cell bottom side.
A polishing slurry (A), comprising: amorphous carbon and water, wherein a total amount of the amorphous carbon and the water is equal to or more than 90% of whole of the polishing slurry (A) in terms of mass ratio, and the amorphous carbon is hydrophilic. amorphous carbon and water, wherein a total amount of the amorphous carbon and the water is equal to or more than 90% of whole of the polishing slurry (A) in terms of mass ratio, and the amorphous carbon is hydrophilic.
A wireless physiology monitoring system, comprising: a plurality of sensors , a wireless sensor device electrically connected to the plurality of sensors and comprising a first wireless transceiver , the wireless sensor device mechanically and electrically connected to one of the plurality of sensors , the wireless sensor device configured to receive sensing signals from the plurality of sensors and wirelessly transmit a sensor signal indicative to the sensing signals via the first wireless transceiver , wherein the wireless sensor device further comprises a first NFC transceiver , and a wireless adaptor device comprising a second wireless transceiver and configured to wirelessly receive the sensor signal via the second wireless transceiver, wherein the wireless adaptor device further comprises a second NFC transceiver, wherein the wireless sensor device is configured to communicate to the wireless adaptor device via NFC, wherein the wireless sensor device is configured to communicate wireless identification with the wireless adaptor device via NFC for establishing a wireless communication with the wireless adaptor device using said wireless identification, and wherein said established wireless communication is used for said sensor signal transmission. a plurality of sensors , a wireless sensor device electrically connected to the plurality of sensors and comprising a first wireless transceiver , the wireless sensor device mechanically and electrically connected to one of the plurality of sensors , the wireless sensor device configured to receive sensing signals from the plurality of sensors and wirelessly transmit a sensor signal indicative to the sensing signals via the first wireless transceiver , wherein the wireless sensor device further comprises a first NFC transceiver , and a wireless adaptor device comprising a second wireless transceiver and configured to wirelessly receive the sensor signal via the second wireless transceiver, wherein the wireless adaptor device further comprises a second NFC transceiver, wherein the wireless sensor device is configured to communicate to the wireless adaptor device via NFC, wherein the wireless sensor device is configured to communicate wireless identification with the wireless adaptor device via NFC for establishing a wireless communication with the wireless adaptor device using said wireless identification, and wherein said established wireless communication is used for said sensor signal transmission.
A peptide consisting of the amino acid sequence according to SEQ ID No. 12; a peptide consisting of the amino acid sequence according to SEQ ID No. 12 and 1 additional amino acid attached to the N- and/or C-terminal end thereof; or a pharmaceutical acceptable salt thereof.
A method for thermally treating glass articles, the method comprising: holding a glass article at a treatment temperature equal to an annealing temperature of the glass article ± 15°C for a holding time greater than or equal to 5 minutes and less than or equal to 15 minutes; cooling the glass article from the treatment temperature through a strain point of the glass article at a first cooling rate CR 1 less than 0°C/min and greater than or equal to -10°C/min such that a density of the glass article is greater than or equal to 0.003 g/cc after cooling; and cooling the glass article from below the strain point at a second cooling rate CR 2 , wherein |CR 2 |> |CR 1 |. holding a glass article at a treatment temperature equal to an annealing temperature of the glass article ± 15°C for a holding time greater than or equal to 5 minutes and less than or equal to 15 minutes; cooling the glass article from the treatment temperature through a strain point of the glass article at a first cooling rate CR 1 less than 0°C/min and greater than or equal to -10°C/min such that a density of the glass article is greater than or equal to 0.003 g/cc after cooling; and cooling the glass article from below the strain point at a second cooling rate CR 2 , wherein |CR 2 |> |CR 1 |.
A cable connector for connecting wires in a cable to a complementary host connector located at a host device , the cable connector comprising a set of cable terminals and a set of duplicate cable terminals corresponding to the set of cable terminals, and configured to be located rotationally symmetrically to the set of cable terminals, so that the connector has 180° rotational symmetry, wherein a particular cable terminal of the set of cable terminals is connected to a particular wire in the cable and a corresponding particular duplicate cable terminal in the set of duplicate cable terminals is not connected to the particular wire ; whereby the cable connector is connectable to a host connector comprising a set of host terminals which are complementary to the cable terminals of the cable connector and including a particular host terminal complementary to the particular cable terminal and to the particular duplicate cable terminal and a set of duplicate host terminals including a particular duplicate host terminal corresponding to the particular host terminal in the set of host terminals, but configured to be located rotationally symmetrically to the particular host terminal in the set of host terminals and to be complementary to the particular cable terminal and the particular duplicate cable terminal , the cable connector further comprising sensing circuitry for determining an orientation of the cable connector relative to the host connector, when it is connected to the host connector, by sensing if there are other signals which are connected through the cable connector in one orientation; a switch controller coupled to the sensing circuitry and to first and second switches for controlling the first and second switches to switch the particular wire either to the particular cable terminal or to the particular duplicate cable terminal based on the determined orientation; wherein either the particular cable terminal or the particular duplicate cable terminal is adapted to receive a first signal via whichever of the particular host terminal or particular duplicate host terminal the first signal is applied to, whereby the first signal is coupled to the particular wire via whichever of the particular cable terminal and the particular duplicate cable terminal the particular wire has been switched to; and wherein the other of the particular cable terminal or the particular duplicate cable terminal is adapted to receive a second signal via whichever of the particular host terminal or particular duplicate host terminal the second signal is applied to, whereby the second signal is not coupled to the particular wire in the cable .
A fiber bundle for bearing microorganisms, wherein the fiber bundle comprises fiber filaments wound into a ring shape or having two ends of fiber filaments bound into a bundle; wherein the cross section of the fiber filaments is a non-circular shape selected from an oval shape , a cashew shape , a triangular shape , a pentagonal shape , a square shape , a prismatic shape , a Y shape , a plum shape , a cruciform shape and a Union Jack shape ; characterized in that the fiber filaments have an outer surface that is rough, or has grooves , holes or protrusions , the fiber bundle has a specific surface area of from 14,400 m 2 /m 3 to 18,000 m 2 /m 3 , the fiber porosity is about 90% and the fiber bundle bearing capacity of microorganisms is 162 kg/m 3 to 202 kg/m 3 .
Masterbatch, in particular in granulate form, consisting of or containing a) at least one silicon-containing block copolymer A), b) at least one inorganic pigment and/or an inorganic filler B), in particular at least one inorganic pigment, and c) at least one polymer C) selected from the group consisting of thermoplastic polymers, selected from the group consisting of polyolefin homo- and copolymers, polyesters, polyvinyl chloride and any desired mixtures thereof, thermoplastic elastomers, comprising or representing thermoplastic polyurethane elastomers, or mixtures thereof. a) at least one silicon-containing block copolymer A), b) at least one inorganic pigment and/or an inorganic filler B), in particular at least one inorganic pigment, and c) at least one polymer C) selected from the group consisting of thermoplastic polymers, selected from the group consisting of polyolefin homo- and copolymers, polyesters, polyvinyl chloride and any desired mixtures thereof, thermoplastic elastomers, comprising or representing thermoplastic polyurethane elastomers, or mixtures thereof.
An electronic device , comprising: a display assembly capable of presenting visual content; a front cover glass overlying the display assembly ; a rear cover glass defining an opening and an exterior surface ; a side wall retainer formed from a high-strength material, the side wall retainer coupled with the front cover glass and the rear cover glass ; a camera cover glass disposed at the opening , a first portion of the camera cover glass coated with an opaque material that blocks visible light from passing through the opaque material, and a second portion of the camera cover glass that defines a first visible light transparent camera window and a second visible light transparent camera window ; and an input/output, I/O, assembly disposed at the opening such that a portion of the I/O assembly protrudes from, and is proud of the exterior surface of the rear cover glass , the I/O assembly comprising: a first camera module ; a second camera module ; and a trim that encloses the first camera module and the second camera module . a display assembly capable of presenting visual content; a front cover glass overlying the display assembly ; a rear cover glass defining an opening and an exterior surface ; a side wall retainer formed from a high-strength material, the side wall retainer coupled with the front cover glass and the rear cover glass ; a camera cover glass disposed at the opening , a first portion of the camera cover glass coated with an opaque material that blocks visible light from passing through the opaque material, and a second portion of the camera cover glass that defines a first visible light transparent camera window and a second visible light transparent camera window ; and an input/output, I/O, assembly disposed at the opening such that a portion of the I/O assembly protrudes from, and is proud of the exterior surface of the rear cover glass , the I/O assembly comprising: a first camera module ; a second camera module ; and a trim that encloses the first camera module and the second camera module . a first camera module ; a second camera module ; and a trim that encloses the first camera module and the second camera module .
A method to estimate the maximum pressure (P MAX , P 3 ) inside the combustion chamber of a cylinder of an internal combustion engine , which comprises estimating the maximum pressure (P MAX , P 3 ) according to the following formula: P MAX = P 3 = P 2 * f MFB 50 REF − 1 ∗ λ REF λ ∗ T IVC _ REF T IVC ∗ LHV E λ ST E ∗ λ ST _ REF LHV REF + 1 f(MFB50) REF energy conversion function based on the MFB50 combustion index considered at the reference values of the air/fuel equivalence ratio (λ) and on the temperature (T IVC ) inside the combustion chamber of the cylinder upon closing of the intake valves , wherein the value of the MFB50 combustion index is alternatively determined by means of an accelerometer or by means of a pressure sensor housed in the combustion chamber of the cylinder ; À air/fuel equivalence ratio; λ REF reference air/fuel equivalence ratio; T IVC temperature inside the combustion chamber of the cylinder upon closing of the intake valves ; T IVC_REF reference temperature inside the combustion chamber of the cylinder upon closing of the intake valves ; λ ST stoichiometric air/fuel ratio; λ ST_REF reference stoichiometric air/fuel ratio; LHV lower heating value of the fuel; LHV REF reference lower heating value of the fuel; E mass percentage of ethanol contained in the fuel; and P 2 pressure value obtained at the end of the compression stroke of the combustion cycle is calculated as follows: P 2 = P IVC * r c γ * + f m CYL * 1 − k r c compression ratio P IVC pressure inside the combustion chamber of the cylinder upon closing of the intake valves , i.e. when the compression stroke begins; γ heat capacity ratio; m CYL air mass trapped in the cylinder during the complete combustion cycle; and k parameter equal to 0 or 1. f(MFB50) REF energy conversion function based on the MFB50 combustion index considered at the reference values of the air/fuel equivalence ratio (λ) and on the temperature (T IVC ) inside the combustion chamber of the cylinder upon closing of the intake valves , wherein the value of the MFB50 combustion index is alternatively determined by means of an accelerometer or by means of a pressure sensor housed in the combustion chamber of the cylinder ; À air/fuel equivalence ratio; λ REF reference air/fuel equivalence ratio; T IVC temperature inside the combustion chamber of the cylinder upon closing of the intake valves ; T IVC_REF reference temperature inside the combustion chamber of the cylinder upon closing of the intake valves ; λ ST stoichiometric air/fuel ratio; λ ST_REF reference stoichiometric air/fuel ratio; LHV lower heating value of the fuel; LHV REF reference lower heating value of the fuel; E mass percentage of ethanol contained in the fuel; and P 2 pressure value obtained at the end of the compression stroke of the combustion cycle is calculated as follows: P 2 = P IVC * r c γ * + f m CYL * 1 − k r c compression ratio P IVC pressure inside the combustion chamber of the cylinder upon closing of the intake valves , i.e. when the compression stroke begins; γ heat capacity ratio; m CYL air mass trapped in the cylinder during the complete combustion cycle; and k parameter equal to 0 or 1.