mhurhangee/patent-ind-claim-en huggingface dataset:
A method of limiting the torque of an electric vehicle when driving uphill and while carrying a particular number of people, wherein the method comprises: obtaining real-time data regarding powertrain operation of the vehicle over a period of time, wherein obtaining the real-time data regarding powertrain operation of a vehicle includes: obtaining real-time data over the period of time from a power transmission system of the vehicle , the real-time data including data indicative of current motor torque of a motor of the vehicle as motor speed increases; determining whether the vehicle is climbing an inclined surface or traveling on a flat surface while carrying a particular number of people, over the period of time based on comparing the obtained real-time data regarding the powertrain operation of the vehicle to reference data, the reference data including data regarding powertrain operation including data indicating motor torque as motor speed increases that is characteristic of when the vehicle is climbing an inclined surface or traveling on a flat surface while carrying a particular number of people, and implementing a derating curve to govern max torque output of motor of the vehicle based on said determination, by causing the motor torque of the vehicle to be at a particular amount of torque according to motor speed, said particular amount of torque being defined by the derating curve , which is indicative of desired motor torque versus motor speed. obtaining real-time data regarding powertrain operation of the vehicle over a period of time, wherein obtaining the real-time data regarding powertrain operation of a vehicle includes: obtaining real-time data over the period of time from a power transmission system of the vehicle , the real-time data including data indicative of current motor torque of a motor of the vehicle as motor speed increases; determining whether the vehicle is climbing an inclined surface or traveling on a flat surface while carrying a particular number of people, over the period of time based on comparing the obtained real-time data regarding the powertrain operation of the vehicle to reference data, the reference data including data regarding powertrain operation including data indicating motor torque as motor speed increases that is characteristic of when the vehicle is climbing an inclined surface or traveling on a flat surface while carrying a particular number of people, and implementing a derating curve to govern max torque output of motor of the vehicle based on said determination, by causing the motor torque of the vehicle to be at a particular amount of torque according to motor speed, said particular amount of torque being defined by the derating curve , which is indicative of desired motor torque versus motor speed.
A multilevel modular voltage converter for converting an AC voltage into a DC voltage and vice versa, the converter comprising a DC portion for connection to a DC power supply network and an AC portion for connection to an AC power supply network , the converter comprising a plurality of legs, each leg comprising an upper arm and a lower arm, each arm comprising a plurality of submodules that are individually controllable by a control member specific to each submodule, and each submodule comprising a capacitor that is connectable in series in the arm when the control member of the submodule is in an ON state, each arm being suitable for modeling as a modeled voltage source associated with a duty ratio depending on a number of capacitors connected in series in the arm, each modeled voltage source being associated in parallel with a modeled capacitor corresponding to a total capacitance of the arm, the converter further comprising a converter control module configured to regulate the voltage across the terminals of each modeled capacitor of each leg and to regulate the voltage across the points of common coupling between the converter and the DC power supply network by controlling said control members of the submodules of the converter, characterized in that the control module of the converter comprises a computer for computing a setpoint for the internal energy of the converter stored in the capacitors of the submodules of the arms by applying a function having an adjustable input parameter, the control module being configured to deduce from this energy setpoint a setpoint for the voltage across the terminals of each modeled capacitor used for regulating the voltage across the points of common coupling between the converter and the DC power supply network and the voltage across the terminals of each modeled capacitor.
Packaging device for packaging a two-wheeler comprising a frame and at least one wheel mounted thereon, in particular a bicycle , the device comprising a base , a casing , which at least partially encloses a receiving space for the two-wheeler , and an insertion opening for the two-wheeler , which is arranged on a side facing away from the base , wherein the packaging device comprises longitudinal side walls and transverse side walls which define a longitudinal direction and a transverse direction oriented transversely and in particular perpendicularly thereto, wherein the packaging device comprises a first support element , which projects from the base into the receiving space , and a second support element , which is arranged at a distance from the base and, preferably in the longitudinal direction , at a distance from the first support element , and a wheel receptacle is formed between the support elements , wherein the support elements are placeable on opposite sides of the wheel , characterized in that the second support element is held on a transverse side wall or on a longitudinal side wall of the casing and is foldably connected to the transverse side wall or the longitudinal side wall , so that the support elements are movable relative to one another to expand the wheel receptacle . wherein the packaging device comprises longitudinal side walls and transverse side walls which define a longitudinal direction and a transverse direction oriented transversely and in particular perpendicularly thereto, wherein the packaging device comprises a first support element , which projects from the base into the receiving space , and a second support element , which is arranged at a distance from the base and, preferably in the longitudinal direction , at a distance from the first support element , and a wheel receptacle is formed between the support elements , wherein the support elements are placeable on opposite sides of the wheel , characterized in that the second support element is held on a transverse side wall or on a longitudinal side wall of the casing and is foldably connected to the transverse side wall or the longitudinal side wall , so that the support elements are movable relative to one another to expand the wheel receptacle .
Gate driver circuit for a half bridge or full bridge output driver stage, having a high side branch connected to one or more high side output transistors (Mp) of the driver stage and a low side branch connected to one or more low side output transistors (Mn) of the driver stage , comprising a high side gate driver (10p; 21p) and a low side gate driver (10n; 21n) configured to receive input signals at a low voltage level (VDD) and to operate with a high voltage level (VPP), configured to output signals at a high voltage level as gate driving signals (Gp, Gn) for the high side output transistors (Mp) and low side output transistors (Mn) wherein the high side and the low side branches of the gate driver include each a set-reset latch which signal output (Qp, Qpn) is fed as gate signal to the corresponding output transistor (Mp, Mn) of the half bridge or full bridge driver stage , a differential capacitive level shifter circuit configured to receive said input signals at a low voltage level and configured to output high voltage signals to drive the set (S) and reset (R) inputs of the set-reset latch , said differential circuit including two hysteresis circuit modules configured to, when enabled, feed an additional current to the two outputs of the differential circuit , said circuit modules being enabled by respective feedback signals (GPOFF, GPON) corresponding to the logic state at the input of the output transistors (Mp) of the driver stage of the corresponding branch and its negated.
Method for processing objects , in particular objects in a production process, having the following method steps: measuring at least one object by means of a subset of sensors , which are assigned to at least one sensor arrangement having a plurality of sensors , wherein the subset of sensors is in a detection mode and in this way forms a detection device; ascertaining an irradiation of the at least one object to be applied by means of an irradiation device using a control device, taking into account a result of the measurement of the at least one object , and irradiating the at least one object using at least one further subset of the plurality of sensors , which subset is in an irradiation mode and, in this mode, forms an irradiation device ; and wherein the sensors are usable and switchable as a detector and as a radiation source; and possibly repeating at least some of the method with another measurement, ascertainment and/or irradiation. measuring at least one object by means of a subset of sensors , which are assigned to at least one sensor arrangement having a plurality of sensors , wherein the subset of sensors is in a detection mode and in this way forms a detection device; ascertaining an irradiation of the at least one object to be applied by means of an irradiation device using a control device, taking into account a result of the measurement of the at least one object , and irradiating the at least one object using at least one further subset of the plurality of sensors , which subset is in an irradiation mode and, in this mode, forms an irradiation device ; and wherein the sensors are usable and switchable as a detector and as a radiation source; and possibly repeating at least some of the method with another measurement, ascertainment and/or irradiation.
A method for data transmission, the method comprising: receiving (S301), by an electronic device, a first identifier from a mobile network element, wherein the first identifier is used for transmitting a data packet between the electronic device and a network exposure function, NEF, entity corresponding to the first identifier; and adding (S302), by the electronic device, the first identifier to the data packet, wherein the mobile network element comprises a session management function, SMF, entity, and wherein the electronic device comprises a user plane functional, UPF, entity. receiving (S301), by an electronic device, a first identifier from a mobile network element, wherein the first identifier is used for transmitting a data packet between the electronic device and a network exposure function, NEF, entity corresponding to the first identifier; and adding (S302), by the electronic device, the first identifier to the data packet, wherein the mobile network element comprises a session management function, SMF, entity, and wherein the electronic device comprises a user plane functional, UPF, entity.
A channel smoke detector assembly comprising a mounting base to be mounted on a wall of a flow channel , and a smoke detector mounted on the mounting base outside of the flow channel , the smoke detector having a detection chamber that communicates with the interior of the flow channel via an opening of the mounting base and an opening in the wall of the flow channel , the smoke detector being accommodated in a flow insert disposed adjacent to the mounting base and forming a flow chamber which is in fluid communication with the detection chamber on the one hand and, via a dirt filter , with the opening of the mounting base on the other hand, the dirt filter being a filter insert that is inserted in a well of the mounting base , the assembly further comprising a casing that is detachably connected to the mounting base , characterized in that the flow insert is fittingly inserted in the well of the mounting base , the dirt filter is held removably between the mounting base and the filter insert , the smoke detector is removably inserted in the casing , and the dirt filter , the flow insert and the smoke detector are held together by the casing .
A method for changing an application in a BGP, Border Gateway Protocol, session, said session being established between a first router and a second router, and an application being enabled in said session; the method comprising: when changing an application, the first router changing a local capability value stored on a memory of the first router to a value which supports the changed application and changing an address family to correspond with the changed application wherein changing the application comprises adding a new application, and characterized in that the method further comprises: the first router sending route information corresponding to the changed application to the second router, the first router sending a Refresh message to the second router; the Refresh message requesting the second router to resend route information of a designated address corresponding to the changed application; and the first router receiving the route information corresponding to the changed application from the second router. the first router receiving a Refresh message from the second router; and the first router resending route information of a designated address corresponding to the changed application to the second router. when changing an application, the first router changing a local capability value stored on a memory of the first router to a value which supports the changed application and changing an address family to correspond with the changed application wherein changing the application comprises adding a new application, and characterized in that the method further comprises: the first router sending route information corresponding to the changed application to the second router, the first router sending a Refresh message to the second router; the Refresh message requesting the second router to resend route information of a designated address corresponding to the changed application; and the first router receiving the route information corresponding to the changed application from the second router. the first router receiving a Refresh message from the second router; and the first router resending route information of a designated address corresponding to the changed application to the second router. the first router sending route information corresponding to the changed application to the second router, the first router sending a Refresh message to the second router; the Refresh message requesting the second router to resend route information of a designated address corresponding to the changed application; and the first router receiving the route information corresponding to the changed application from the second router. the first router receiving a Refresh message from the second router; and the first router resending route information of a designated address corresponding to the changed application to the second router.
A piston rod assembly comprising: a piston rod having a first end configured to contact fluid; a packing retainer though which the piston rod extends, the packing retainer including one or more leakage ports forming passageways between an inner surface and an outer surface of the packing retainer; one or more packing rings that surround the piston rod, are adjacent the inner surface of the packing retainer, and are positioned between the one or more leakage ports and a bottom end of the packing retainer; wherein the one or more leakage ports are positioned so that fluid that leaks past the one or more packing rings will flow through the one or more leakage ports; the piston rod assembly being characterized by a paint permeable ring adjacent the one or more ports at the inner surface of the packing retainer. a piston rod having a first end configured to contact fluid; a packing retainer though which the piston rod extends, the packing retainer including one or more leakage ports forming passageways between an inner surface and an outer surface of the packing retainer; one or more packing rings that surround the piston rod, are adjacent the inner surface of the packing retainer, and are positioned between the one or more leakage ports and a bottom end of the packing retainer; wherein the one or more leakage ports are positioned so that fluid that leaks past the one or more packing rings will flow through the one or more leakage ports; the piston rod assembly being characterized by a paint permeable ring adjacent the one or more ports at the inner surface of the packing retainer.
Inhibitor of the CCL7/CCR3 interaction for use to prevent or treat the extension of prostate cancer outside the prostatic capsule in a subject; with the inhibitor of the CCL7/CCR3 interaction being chosen from the group consisting of an organic molecule chosen from the group consisting of compounds having formulae I to DCCLXXXIV, a peptide, antibodies directed against CCR3 or CCL7, a peptidomimetic and a CCL7- or CCR3-recognising aptamer.
Use of a clay comprising: - less than 25% of kaolinite; and - at least 20% of muscovite and/or illite; - the muscovite and/or illite / kaolinite weight ratio being greater than 1; for preparing a pozzolanic material. - less than 25% of kaolinite; and - at least 20% of muscovite and/or illite; - the muscovite and/or illite / kaolinite weight ratio being greater than 1; for preparing a pozzolanic material.
A polypeptide consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein cysteine, which is an amino acid corresponding to position 33 of SEQ ID NO: 3, is substituted with serine.
A method of cementing a stage of a wellbore comprising: (a) providing a downhole tool having an annular casing box section with an end adapted for connection to a casing string , an annular mandrel section having an end coaxially coupled to an end of the casing box section distal from the end adapted for connection to a casing string , a tubular body slidingly coupled with an end of the mandrel section distal from the end coupled to the casing box section , a sleeve coaxially set within the tubular body , an aperture formed radially through a side wall of the mandrel section , and a port formed radially through a side wall of the tubular body ; (b) placing the tool integral with a casing string ; (c) inserting the casing string in the wellbore; (d) flowing cement within a bore that extends through the casing string and tool ; (e) obstructing the bore within the tool by landing a plug in the sleeve ; (f) pumping fluid into the bore to slide the sleeve to a position so that pressurized fluid in the bore flows through a flow line to form an inflated packer element ; (g) registering the aperture and port by lowering the casing string ; and (h) directing cement through the registered port and aperture into an annulus above the inflated packer . (a) providing a downhole tool having an annular casing box section with an end adapted for connection to a casing string , an annular mandrel section having an end coaxially coupled to an end of the casing box section distal from the end adapted for connection to a casing string , a tubular body slidingly coupled with an end of the mandrel section distal from the end coupled to the casing box section , a sleeve coaxially set within the tubular body , an aperture formed radially through a side wall of the mandrel section , and a port formed radially through a side wall of the tubular body ; (b) placing the tool integral with a casing string ; (c) inserting the casing string in the wellbore; (d) flowing cement within a bore that extends through the casing string and tool ; (e) obstructing the bore within the tool by landing a plug in the sleeve ; (f) pumping fluid into the bore to slide the sleeve to a position so that pressurized fluid in the bore flows through a flow line to form an inflated packer element ; (g) registering the aperture and port by lowering the casing string ; and (h) directing cement through the registered port and aperture into an annulus above the inflated packer .
A selectively reconfigurable antenna system , comprising: a first material layer and a second material layer defining a cavity there between; a first reservoir and a liquid metal at least partially in the first reservoir; a second reservoir and a liquid electrolyte at least partially in the second reservoir such that the liquid metal and the electrolyte are in contact at a metal oxide layer in the cavity; a plurality of electrodes (107, 111, and 203) in electrical communication with the cavity, with a first electrode being in contact with the liquid metal and a second electrode being in contact with the electrolyte; and a voltage source arranged to apply a voltage between the first and second electrodes such that the metal oxide layer breaks down when the voltage is applied; wherein the voltage source is further configured to adjust the applied voltage based on a measured resultant current flow. a first material layer and a second material layer defining a cavity there between; a first reservoir and a liquid metal at least partially in the first reservoir; a second reservoir and a liquid electrolyte at least partially in the second reservoir such that the liquid metal and the electrolyte are in contact at a metal oxide layer in the cavity; a plurality of electrodes (107, 111, and 203) in electrical communication with the cavity, with a first electrode being in contact with the liquid metal and a second electrode being in contact with the electrolyte; and a voltage source arranged to apply a voltage between the first and second electrodes such that the metal oxide layer breaks down when the voltage is applied; wherein the voltage source is further configured to adjust the applied voltage based on a measured resultant current flow.