mhurhangee/patent-ind-claim-en huggingface dataset:
A polybutylene terephthalate resin composition, comprising; 0.05 to 5 parts by mass of a glycerin fatty acid ester having a hydroxyl value of 200 or more to 400 or less, and 0.05 to 5 parts by mass of a polyhydric alcohol fatty acid ester having a hydroxyl value of 50 or less relative to 100 parts by mass of a polybutylene terephthalate resin, wherein the polybutylene terephthalate resin has an intrinsic viscosity measured in o-chlorophenol at 35°C of 1.30 dl/g or less, and wherein the glycerin fatty acid ester comprises glycerin and/or a dehydration-condensation product thereof along with a fatty acid having 12 or more carbon atoms, and wherein (i) the polyhydric alcohol fatty acid ester having a hydroxyl value of 50 or less is an ester composed of a fatty acid having 10 to 35 carbon atoms; and a polyhydric alcohol selected from ethylene glycol, glycerin, 1,2,4-butanetriol, diglycerin, pentaerythritol, erythritol, sorbitol, or hexanetriol; or wherein (ii) the polyhydric alcohol fatty acid ester having a hydroxyl value of 50 or less is pentaerythritol tetrapalmitate, pentaerythritol tetrabehenate, pentaerythritol tetrastearate, hexaglycerin tetrabehenate tetrapalmitate, hexaglycerin octabehenate, pentaglycerin heptabehenate, tetraglycerin hexabehenate, triglycerin pentabehenate, diglycerin tetrabehenate, glycerin tribehenate, dipentaerythritol hexamyristate, or dipentaerythritol hexapalmitate. 0.05 to 5 parts by mass of a glycerin fatty acid ester having a hydroxyl value of 200 or more to 400 or less, and 0.05 to 5 parts by mass of a polyhydric alcohol fatty acid ester having a hydroxyl value of 50 or less relative to 100 parts by mass of a polybutylene terephthalate resin, wherein the polybutylene terephthalate resin has an intrinsic viscosity measured in o-chlorophenol at 35°C of 1.30 dl/g or less, and wherein the glycerin fatty acid ester comprises glycerin and/or a dehydration-condensation product thereof along with a fatty acid having 12 or more carbon atoms, and wherein (i) the polyhydric alcohol fatty acid ester having a hydroxyl value of 50 or less is an ester composed of a fatty acid having 10 to 35 carbon atoms; and a polyhydric alcohol selected from ethylene glycol, glycerin, 1,2,4-butanetriol, diglycerin, pentaerythritol, erythritol, sorbitol, or hexanetriol; or wherein (ii) the polyhydric alcohol fatty acid ester having a hydroxyl value of 50 or less is pentaerythritol tetrapalmitate, pentaerythritol tetrabehenate, pentaerythritol tetrastearate, hexaglycerin tetrabehenate tetrapalmitate, hexaglycerin octabehenate, pentaglycerin heptabehenate, tetraglycerin hexabehenate, triglycerin pentabehenate, diglycerin tetrabehenate, glycerin tribehenate, dipentaerythritol hexamyristate, or dipentaerythritol hexapalmitate.
A probe data collection method for a probe data management system having a server that receives probe data transmitted from vehicles , and a database that stores the probe data received by the server, characterized by detecting (S8), by the server, a total number of the vehicles that transmitted the probe data and are present within a selected area, and upload time of the probe data for each of the vehicles based on the received probe data, the upload time being a timing of transmitting the probe data from the vehicle, for each of the vehicles, calculating (S10, S11), by the server, correction value of the upload time based on whether the total number of the vehicles within the selected area is greater than or equal to a predetermined value, and further based on the detected upload time, and transmitting (S12), by the server, the calculated correction values to the vehicles respectively.
Aircraft passenger seat comprising a seat base , a backrest , a foldable leg support , a stationary housing , and a base component , arranged at a front side of the housing , of the backrest of the aircraft passenger seat , wherein the base component , movable relative to the housing , adopts an upright position when the backrest is being used, wherein a securing apparatus (37-39) is provided for securing the base component in the upright position in a manner that can be cancelled, wherein a securing element of the securing apparatus (37-39) can be adjusted from a securing position of the securing element with respect to the securing apparatus (37-39) into a release position of the securing element , wherein, in order to lock the securing element in the securing position, a movable locking member of the securing apparatus (37-39) moves into abutment against a locking contour on the securing element in such a manner that the securing element is locked in the securing position, wherein the locking member is movable in a resilient manner, wherein the locking member is in the form of a spring element.
A method , operational at a user device, comprising: receiving , from a network entity, at least one packet belonging to a first set of packets of a packet flow marked with an identification value; determining that the at least one packet is marked with the identification value; determining , in response to receiving the at least one packet belonging to the first set of packets, to change a quality of service, QoS, treatment of packets belonging to the first set of packets marked with the identification value that are yet to be received; and sending , to the network entity, a request to change the QoS treatment of packets belonging to the first set of packets marked with the identification value that are yet to be received to trigger a different QoS treatment of the first set of packets within the packet flow that are yet to be received, responsive to determining to change the QoS treatment. receiving , from a network entity, at least one packet belonging to a first set of packets of a packet flow marked with an identification value; determining that the at least one packet is marked with the identification value; determining , in response to receiving the at least one packet belonging to the first set of packets, to change a quality of service, QoS, treatment of packets belonging to the first set of packets marked with the identification value that are yet to be received; and sending , to the network entity, a request to change the QoS treatment of packets belonging to the first set of packets marked with the identification value that are yet to be received to trigger a different QoS treatment of the first set of packets within the packet flow that are yet to be received, responsive to determining to change the QoS treatment.
A security and home automation system for optimizing power consumption, comprising: a multi-core processor having a first core and a second core , the first core partitioned from the second core to form an asymmetric multi-core processor, wherein: the first core is a master core assigned to execute a real time operating system, RTOS , and configured to periodically transition between a partial sleep state and an awake state during a power shortage condition, the first core configured to determine through self-monitoring when to periodically transition between the partial sleep state and the awake state during the power shortage condition, the first core further configured to send a request to the second core to enter one of an awake state or a deep sleep state during the power shortage condition, and the second core is a slave core assigned to execute a full-blown operating system, OS , and configured to, in response to receiving the request to enter the deep sleep state from the first core, enter the deep sleep state during the power shortage condition, and in response to receiving the request to enter the awake state from the first core, enter the awake state during the power shortage condition. the first core is a master core assigned to execute a real time operating system, RTOS , and configured to periodically transition between a partial sleep state and an awake state during a power shortage condition, the first core configured to determine through self-monitoring when to periodically transition between the partial sleep state and the awake state during the power shortage condition, the first core further configured to send a request to the second core to enter one of an awake state or a deep sleep state during the power shortage condition, and the second core is a slave core assigned to execute a full-blown operating system, OS , and configured to, in response to receiving the request to enter the deep sleep state from the first core, enter the deep sleep state during the power shortage condition, and in response to receiving the request to enter the awake state from the first core, enter the awake state during the power shortage condition.
A multiplier configured to produce an output current representing a product of a first input voltage and a second input voltage, comprising: a first transconductance stage which is configured to input the first input voltage and to output a first pair of differential currents, when being supplied with a first fixed bias current, wherein the first transconductance stage comprises a negative feedback network, at least one second transconductance stage which is configured to input the second input voltage and to output a pre-distorted voltage of the second input voltage, when being supplied with a second fixed bias current, wherein each second transconductance stage comprises a negative feedback network, a pair of third transconductance stages , each of which is configured to input a voltage corresponding to the pre-distorted voltage of the second input voltage and to output a second pair of differential currents, when being supplied with a bias current corresponding to a respective current of the first pair of differential currents, and a combination network which is configured to generate the output current by combining the second pairs of differential currents from both of the pair of third transconductance stages, wherein each transconductance stage is realized with MOSFET transistors in CMOS technology. a first transconductance stage which is configured to input the first input voltage and to output a first pair of differential currents, when being supplied with a first fixed bias current, wherein the first transconductance stage comprises a negative feedback network, at least one second transconductance stage which is configured to input the second input voltage and to output a pre-distorted voltage of the second input voltage, when being supplied with a second fixed bias current, wherein each second transconductance stage comprises a negative feedback network, a pair of third transconductance stages , each of which is configured to input a voltage corresponding to the pre-distorted voltage of the second input voltage and to output a second pair of differential currents, when being supplied with a bias current corresponding to a respective current of the first pair of differential currents, and a combination network which is configured to generate the output current by combining the second pairs of differential currents from both of the pair of third transconductance stages, wherein each transconductance stage is realized with MOSFET transistors in CMOS technology.
Interference-suppression arrangement of an actuating element having an electric motor , comprising: a) the actuating element and the electric motor with an at least partially electrically conductive electric motor housing and a first electrical connection line and a second electrical connection line which provide an electrical connection between a voltage source and the electric motor , b) a first varistor and a second varistor , wherein c) the first varistor is electrically connected at one end to the first connection line and the electric motor housing , and the second varistor is electrically connected at one end to the second connection line and the electric motor housing , characterized in that the electric motor housing is connected to an at least partially electrically conductive portion of the actuating element, which portion forms a housing of the actuating element or a metallized subregion on the actuating element, via an electrical connection , and in that the first varistor and the second varistor are connected at the other end to the electrical connection , so that high-frequency voltages can be discharged by means of the capacitances of the first varistor and the second varistor . a) the actuating element and the electric motor with an at least partially electrically conductive electric motor housing and a first electrical connection line and a second electrical connection line which provide an electrical connection between a voltage source and the electric motor , b) a first varistor and a second varistor , wherein c) the first varistor is electrically connected at one end to the first connection line and the electric motor housing , and the second varistor is electrically connected at one end to the second connection line and the electric motor housing ,
Non-therapeutic cosmetic use of an extract from tulip petals of the Tulipa gesneriana family comprising by weight, from 20 to 70% sugars and from 15 to 30% phenolic compounds, of which at least 8% of these phenolic compounds are flavonoids, in relation to the total weight of the dry extract, for its action on the growth and the regrowth of hair in a mammal.
A method for processing a variable length code encoded image comprising a plurality of scan lines , each scan line comprising a number of code blocks comprising a differentially encoded parameter , wherein a code block comprises a discrete cosine transformed sub-block of a minimum coded unit of a JPEG encoded image, said method comprising: - defining a subarea of the image comprising parts of a number of said scan lines; - extracting said subarea ; and - generating a set of auxiliary code blocks , wherein a first of said auxiliary code blocks comprises an auxiliary differentially encoded parameter based on said differentially encoded parameter of a first code block of a first scan line in said subarea , and wherein a second of said auxiliary code blocks comprises an auxiliary differentially encoded parameter based on said differentially encoded parameter in a last code block of said first scan line in said subarea and on said differentially encoded parameter of a first code block of a second scan line in said subarea , wherein the second scan line follows the first scan line along a scanning direction; said method characterised by - associating said set of auxiliary code blocks with said subarea and inserting said auxiliary code blocks between code blocks associated with the extracted subarea , whereby the code blocks associated with the extracted subarea remain unmodified. - defining a subarea of the image comprising parts of a number of said scan lines; - extracting said subarea ; and - generating a set of auxiliary code blocks , wherein a first of said auxiliary code blocks comprises an auxiliary differentially encoded parameter based on said differentially encoded parameter of a first code block of a first scan line in said subarea , and wherein a second of said auxiliary code blocks comprises an auxiliary differentially encoded parameter based on said differentially encoded parameter in a last code block of said first scan line in said subarea and on said differentially encoded parameter of a first code block of a second scan line in said subarea , wherein the second scan line follows the first scan line along a scanning direction; said method characterised by - associating said set of auxiliary code blocks with said subarea and inserting said auxiliary code blocks between code blocks associated with the extracted subarea , whereby the code blocks associated with the extracted subarea remain unmodified.
Method for actuating a pulse-width-modulated electrical converter , comprising the following steps: actuating (S1) the converter at a first predetermined clock frequency in a first angle range (I) of an electrical period of a current to be output by the converter ; and actuating (S2) the converter at a second predetermined clock frequency in a second angle range (II) of the electrical period of the current to be output by the converter , characterized by the following steps: detecting (S3) a temperature and/or a temperature distribution in the converter ; and setting (S4) the first angle range (I) and the second angle range (II) depending on the ascertained temperature and/or temperature distribution in the converter . actuating (S1) the converter at a first predetermined clock frequency in a first angle range (I) of an electrical period of a current to be output by the converter ; and actuating (S2) the converter at a second predetermined clock frequency in a second angle range (II) of the electrical period of the current to be output by the converter , characterized by the following steps: detecting (S3) a temperature and/or a temperature distribution in the converter ; and setting (S4) the first angle range (I) and the second angle range (II) depending on the ascertained temperature and/or temperature distribution in the converter . detecting (S3) a temperature and/or a temperature distribution in the converter ; and setting (S4) the first angle range (I) and the second angle range (II) depending on the ascertained temperature and/or temperature distribution in the converter .
A lighting apparatus, comprising: a LED module ; a light source plate for holding the LED module ; a heat sink with a bottom plate and a lateral wall , wherein the light source plate is placed on the bottom plate ; an antenna disposed on the lateral wall ; a driver for generating a driving current to the LED module , wherein the driver has a wireless circuit , wherein the wireless circuit is electrically connected to the antenna for transmitting a wireless signal; and a light housing for holding the heat sink so that the LED module emits light toward a light opening of the light housing , characterized in that an antenna plug is disposed on a bottom side of the bottom plate for connecting to the driver , wherein the antenna is electrically connected to the driver via the antenna plug . a LED module ; a light source plate for holding the LED module ; a heat sink with a bottom plate and a lateral wall , wherein the light source plate is placed on the bottom plate ; an antenna disposed on the lateral wall ; a driver for generating a driving current to the LED module , wherein the driver has a wireless circuit , wherein the wireless circuit is electrically connected to the antenna for transmitting a wireless signal; and a light housing for holding the heat sink so that the LED module emits light toward a light opening of the light housing , characterized in that an antenna plug is disposed on a bottom side of the bottom plate for connecting to the driver , wherein the antenna is electrically connected to the driver via the antenna plug .
An emergency opening device for an aircraft door provided with an opening mechanism, comprising: - means for actuating the opening mechanism, that can be switched between a passive state and an active state of activation of the opening mechanism, and comprising: a tubular operating member provided with a first end linking with the door, and a locking second end ; elastic compression means disposed between a fixed stop element and the operating member ; a retaining member for the locking second end , that can move between a closed position of locking of the locking second end , in a position of the operating member corresponding to the passive state of the actuation means in which elastic means are kept compressed, and an open position of releasing of the locking second end allowing the displacement of the operating member on an axis of displacement (X) to a position corresponding to the active state of the actuation means, under the effect of the effort resulting from the expansion of the elastic means ; - activation means for the actuation means suitable for driving the opening of the retaining member ; characterized in that : - the operating member comprises a first end element and a second end element that can move in translation with respect to one another on the axis of displacement (X), the first end of the operating member being situated on the first end element and the locking second end of the operating member being situated on the second end element ; - the first end element comprises a removable driving stop having a first face for contacting the second end element . - means for actuating the opening mechanism, that can be switched between a passive state and an active state of activation of the opening mechanism, and comprising: a tubular operating member provided with a first end linking with the door, and a locking second end ; elastic compression means disposed between a fixed stop element and the operating member ; a retaining member for the locking second end , that can move between a closed position of locking of the locking second end , in a position of the operating member corresponding to the passive state of the actuation means in which elastic means are kept compressed, and an open position of releasing of the locking second end allowing the displacement of the operating member on an axis of displacement (X) to a position corresponding to the active state of the actuation means, under the effect of the effort resulting from the expansion of the elastic means ; - activation means for the actuation means suitable for driving the opening of the retaining member ; - the operating member comprises a first end element and a second end element that can move in translation with respect to one another on the axis of displacement (X), the first end of the operating member being situated on the first end element and the locking second end of the operating member being situated on the second end element ; - the first end element comprises a removable driving stop having a first face for contacting the second end element .
A device for storing, baking and discharging bakery goods, comprising: - a plurality of stations each having at least one housing , including at least one storage station for receiving carriers equipped with bakery goods , at least one baking station for baking the bakery goods located on the carriers and at least one discharging station at which bakery goods can be presented and removed, as well as - at least one robot which transports the said carriers between said stations , wherein a carrying device for hanging attachment of the robot is provided, characterized in that the carrying device is arranged being supported by opposite stations of said stations . - a plurality of stations each having at least one housing , including at least one storage station for receiving carriers equipped with bakery goods , at least one baking station for baking the bakery goods located on the carriers and at least one discharging station at which bakery goods can be presented and removed, as well as - at least one robot which transports the said carriers between said stations ,