mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving (S1) reconfiguration information requiring performing radio resource control reconfiguration without mobility control information, said reconfiguration information initiating both a media access control reset and a random access procedure; performing (S2) the media access control reset without performing a radio link control reset and a packet data convergence protocol reset; and performing (S4), after performing said media access control reset without performing the radio link control reset and the packet data convergence protocol reset, the random access procedure. receiving (S1) reconfiguration information requiring performing radio resource control reconfiguration without mobility control information, said reconfiguration information initiating both a media access control reset and a random access procedure; performing (S2) the media access control reset without performing a radio link control reset and a packet data convergence protocol reset; and performing (S4), after performing said media access control reset without performing the radio link control reset and the packet data convergence protocol reset, the random access procedure.
Beverage machine for producing beverages using a granulated material comprising a container for receiving the granulated material , a filling unit for filling the granulated material into the container and a beverage preparation unit , wherein the beverage machine comprises a device for visual distance measurement which measures the fill level in the container in the form of a distance value on the basis of the course of a light beam , characterised by a movement unit, which is designed to move the light beam of the device for optical distance measurement relative to the container in such a way that a number of distance values of different regions of the container can be measured within a measuring interval.
A dental device for location in a user's mouth comprising at least one elongate element , the at least one elongate element arranged to exert a force on one or more teeth and a means for retracting and/or extending the at least one elongate element in order to manipulate the one or more teeth , and wherein the means for retracting and/or extending the at least one elongate element comprises a motor , the motor configured to power the means for retracting and/or extending the at least one elongate element , and wherein the device includes a processor configured to control and/or recognise movement of the tooth or teeth and/or the at least one elongate element ; and wherein the device further includes a force release and/or force reduction means, and wherein the processor includes a timer, and wherein the module is configurable to reduce the force acting on the at least one elongate element from a prescribed force for a period of time, and to return the force acting on the at least one elongate element to the prescribed force at the end of the period of time.
Method for manufacturing a coated plastic panel for a household appliance, comprising the steps: (a) providing a plastic body made of an at least partially transparent plastic, wherein the plastic body is a flat or bent plastic plate; (b) applying a light-blocking first coating layer to a surface of the plastic body ; (c) applying a second coating layer to the light-blocking first coating layer from step (b), wherein the second coating layer is more permeable to light than the first coating layer ; and (d) removing the second coating layer within a coated partial surface Tc of the surface with the aid of infrared laser radiation, wherein following step (a) a step (a1) (a1) applying a coloured plastic film to an uncoated partial surface T F of the surface of the plastic body ; is carried out, wherein following step (a) or (a1) a step (a2); (a2) applying a covering film , wherein the covering film contains a transfer film and has a side contour on an uncoated partial surface T K of the surface of the plastic body ; and temporally after step (c) the steps (d1) and (d2); (d1) removing the first coating layer applied in steps (b) and (c) and second coating layer along the side contour with the aid of IR laser radiation; and (d2) peeling off the transfer film ; are carried out, wherein the covering film and/or the coloured plastic film contain sensor elements . (a) providing a plastic body made of an at least partially transparent plastic, wherein the plastic body is a flat or bent plastic plate; (b) applying a light-blocking first coating layer to a surface of the plastic body ; (c) applying a second coating layer to the light-blocking first coating layer from step (b), wherein the second coating layer is more permeable to light than the first coating layer ; and (d) removing the second coating layer within a coated partial surface Tc of the surface with the aid of infrared laser radiation, wherein following step (a) a step (a1) (a1) applying a coloured plastic film to an uncoated partial surface T F of the surface of the plastic body ; is carried out, wherein following step (a) or (a1) a step (a2); (a2) applying a covering film , wherein the covering film contains a transfer film and has a side contour on an uncoated partial surface T K of the surface of the plastic body ; and temporally after step (c) the steps (d1) and (d2); (d1) removing the first coating layer applied in steps (b) and (c) and second coating layer along the side contour with the aid of IR laser radiation; and (d2) peeling off the transfer film ; (a1) applying a coloured plastic film to an uncoated partial surface T F of the surface of the plastic body ; is carried out, wherein following step (a) or (a1) a step (a2); (a2) applying a covering film , wherein the covering film contains a transfer film and has a side contour on an uncoated partial surface T K of the surface of the plastic body ; and temporally after step (c) the steps (d1) and (d2); (d1) removing the first coating layer applied in steps (b) and (c) and second coating layer along the side contour with the aid of IR laser radiation; and (d2) peeling off the transfer film ;
An assembly structure of a weather strip comprising: an installation base member fit in a frame body installed on a door opening edge of a retractable roof vehicle or a hard top vehicle, the frame body including a part having a substantially U-shape in cross section; a hollow part encircled by an inner-cabin side pillar part and a center pillar part vertically provided from an inner-cabin side end and a center part of said installation base member respectively and a connecting part connecting ends of both pillar parts 42B, 42A); an outer seal integrally molded with an outer-cabin side of said installation base member , said outer seal making elastic contact with an outer-cabin side surface of a door glass lifting or lowering when the door is closed; and an inner seal integrally molded with an outer-cabin side of said center pillar part , said inner seal making elastic contact with an inner-cabin side surface of said door glass when the door is closed, wherein: said inner seal comprises a first wall and a second wall respectively extending from an end of said center pillar part and a part on a base root side of said center pillar part on said installation base member toward an outer-cabin side, said first wall and said second wall being connected with each other on one ends thereof in a curved state; wherein: said outer seal is hollow, base roots of the said outer seal being connected with the outer-cabin side end of said installation base member and a part on an outer-cabin side of a connecting position of said center pillar part with said installation base member respectively, and said outer seal also making elastic contact with an upper edge of said door glass ; wherein: an outer-cabin side holding part and an inner-cabin side holding part are formed on an outer-cabin side and an inner-cabin side of said frame body respectively, said outer-cabin side holding part and said inner-cabin side holding part protruding toward an inner side from positions spaced out from a base surface of said frame body, and said inner-cabin side holding part side being on a position further spaced out from the base surface of said frame body than said outer-cabin side holding part side; an anchoring part is protrudingly provided on an inner-cabin side of said inner-cabin side pillar part , said anchoring part being spaced out from a base root of said inner-cabin side pillar part on said installation base member; and a total of a distance between said anchoring part and the base root of said inner-cabin side pillar part on said installation base member and a distance between the base root and an outer-cabin side end of said installation base member is longer than a straight-linear distance between said outer-cabin side holding part and the inner-cabin side holding part , and the outer-cabin side end and said anchoring part of said installation base member are anchored with said outer-cabin side holding part and the inner-cabin side holding part respectively.
A support structure comprising an immobilization system for immobilizing a semi-trailer for the transport thereof on or in said support structure , said immobilization system comprising a locking system of the kingpin of the semi-trailer on said support structure , which locking system comprises: • a receiving nacelle mounted vertically movable on the support structure and intended to receive a cowling part mounted by a central opening on the kingpin of a semi-trailer , • a lifting system comprising a lifting device disposed substantially vertically beneath the receiving nacelle and attached thereto in order to move it vertically between a low position and at least one high position, • a substantially horizontal rigid linking structure extending longitudinally and absorbing the longitudinal forces on the receiving nacelle , said rigid linking structure being hingedly connected to the receiving nacelle by the first end thereof and hingedly connected to the support structure by the second end thereof characterized in that : • the lifting system is mounted pivotally on the support structure at a transverse pivot pin , • the lifting device is attached to the receiving nacelle by means of an articulation allowing at least one longitudinal tilting movement of the receiving nacelle , and in that the locking system further comprises the following means: • mechanical stops that limit the longitudinal forwards and backwards tilting movement of the receiving nacelle ; • an elastic return device that returns the receiving nacelle to a non-tilted position. • a receiving nacelle mounted vertically movable on the support structure and intended to receive a cowling part mounted by a central opening on the kingpin of a semi-trailer , • a lifting system comprising a lifting device disposed substantially vertically beneath the receiving nacelle and attached thereto in order to move it vertically between a low position and at least one high position, • a substantially horizontal rigid linking structure extending longitudinally and absorbing the longitudinal forces on the receiving nacelle , said rigid linking structure being hingedly connected to the receiving nacelle by the first end thereof and hingedly connected to the support structure by the second end thereof • the lifting system is mounted pivotally on the support structure at a transverse pivot pin , • the lifting device is attached to the receiving nacelle by means of an articulation allowing at least one longitudinal tilting movement of the receiving nacelle , • mechanical stops that limit the longitudinal forwards and backwards tilting movement of the receiving nacelle ; • an elastic return device that returns the receiving nacelle to a non-tilted position.
A method for determining a capacity of a battery connectable to a battery charger, the method comprising: generating an electrical pulse across a plus terminal and a minus terminal of the battery; measuring a first voltage (V 1 ) across the plus terminal and the minus terminal at a first time during said pulse; measuring a second voltage (V 2 ) across the plus terminal and the minus terminal at a second time after said pulse; calculating a voltage difference (ΔV) between said first voltage and said second voltage; the method is characterised by : calculating a conductivity (G) of the battery according to: G = I pulse / Δ V where I pulse is the current of the electrical pulse; calculating a capacity (Q) of the battery according to: Q = q G where q(G) is a capacity function that gives the capacity (Q) of the battery for a given conductivity (G) . generating an electrical pulse across a plus terminal and a minus terminal of the battery; measuring a first voltage (V 1 ) across the plus terminal and the minus terminal at a first time during said pulse; measuring a second voltage (V 2 ) across the plus terminal and the minus terminal at a second time after said pulse; calculating a voltage difference (ΔV) between said first voltage and said second voltage;
Optical element for a motor vehicle, comprising at least one transparent first layer containing a polymer material, and at least one second layer comprising at least silicon, titanium and oxygen, characterized in that the optical element has a surface roughness of the second layer defined by a mean square deviation Rq greater than or equal to 20 nm.
A thrombolytic agent for use in the treatment of thromboembolism, wherein the treatment comprises administering the thrombolytic agent directly to the thromboembolism in the presence of ultrasound, wherein the total dose of the thrombolytic agent is between 0.1 and 12 mg and is administered as one or more small bolus doses of between 0.1 and 0.9 mg, and the time over which the total dose is delivered is 6 hours or less.
A data transmission method, comprising: receiving (S210), by a terminal device from a network device, first information, wherein the first information is used to configure K repeated transmission occasions; and repeatedly transmitting (S220), by the terminal device to the network device, first data on N repeated transmission occasions in the K repeated transmission occasions, wherein the N repeated transmission occasions are discontinuous in time domain, K is an integer greater than 2, and N is an integer greater than or equal to 2 and less than K. receiving (S210), by a terminal device from a network device, first information, wherein the first information is used to configure K repeated transmission occasions; and repeatedly transmitting (S220), by the terminal device to the network device, first data on N repeated transmission occasions in the K repeated transmission occasions, wherein the N repeated transmission occasions are discontinuous in time domain, K is an integer greater than 2, and N is an integer greater than or equal to 2 and less than K.
Method for controlling at least one room comfort value (RTmp, RT), in particular the room temperature (RTmp, RT), in a building (R), the method comprising: inputting of a demand signal (w/k) in respect of a change in the room comfort value (RTmp, RT), wherein the inputting is performed by a user on an operating device (BE1, BE2) for a system for controlling the room comfort value (RTmp, RT); analysis of the demand signal (w/k) on the basis of current state data of the system and activation of corresponding manipulated variables of the system by a control device to obtain the corresponding change in the room comfort value (RTmp, RT), wherein the demand signal (w/k) is inputted solely by inputting a change direction in respect of the room comfort value (RTmp, RT); wherein a temporary change (OR1 - OR7) of the current state data of the system obtains until an event occurs. wherein the demand signal in respect of a change in the room comfort value comprises an input direction selected from warmer or cooler wherein the user inputs (w/k) in respect of the demand signal are logged and statistically evaluated, and wherein the parameters of the device are changed based on the statistical evaluation; characterised in that a time period constituting the event is defined on the basis of the statistical evaluation of the user inputs (w/k) in respect of the demand signal. inputting of a demand signal (w/k) in respect of a change in the room comfort value (RTmp, RT), wherein the inputting is performed by a user on an operating device (BE1, BE2) for a system for controlling the room comfort value (RTmp, RT); analysis of the demand signal (w/k) on the basis of current state data of the system and activation of corresponding manipulated variables of the system by a control device to obtain the corresponding change in the room comfort value (RTmp, RT), wherein the demand signal (w/k) is inputted solely by inputting a change direction in respect of the room comfort value (RTmp, RT); wherein a temporary change (OR1 - OR7) of the current state data of the system obtains until an event occurs. wherein the demand signal in respect of a change in the room comfort value comprises an input direction selected from warmer or cooler wherein the user inputs (w/k) in respect of the demand signal are logged and statistically evaluated, and wherein the parameters of the device are changed based on the statistical evaluation; characterised in that a time period constituting the event is defined on the basis of the statistical evaluation of the user inputs (w/k) in respect of the demand signal.
Regulating device for a brushless excitation system for supplying at least one excitation winding of a rotor of a synchronous machine , in particular a turbogenerator, with an excitation current, having: - at least one sensing device , designed to sense an intensity of a magnetic flux generated between a rotor and a stator of a main excitation machine , or a parameter associated with this magnetic flux; - at least one regulating unit , which can be connected between an auxiliary excitation machine and the main excitation machine , and which is designed to generate an auxiliary excitation direct current that can be supplied to the main excitation machine by rectifying an auxiliary excitation three-phase current generated by the auxiliary excitation machine , and which is designed to regulate the current intensity of the auxiliary excitation direct current in such a manner that a magnetic flux generated between the rotor and the stator of the main excitation machine is kept constant independently of the current intensity of the excitation current that can be supplied to the excitation winding of the rotor of the synchronous machine ; and - at least one adjusting unit , which is connected in a rotationally fixed manner to a rotor shaft of the synchronous machine , is connected between the rotor of the main excitation machine and the excitation winding of the rotor of the synchronous machine , and is designed to generate the excitation current by rectifying an excitation three-phase voltage generated by the main excitation machine and to regulate the current intensity of the excitation current that can be supplied to the rotor of the synchronous machine . - at least one sensing device , designed to sense an intensity of a magnetic flux generated between a rotor and a stator of a main excitation machine , or a parameter associated with this magnetic flux; - at least one regulating unit , which can be connected between an auxiliary excitation machine and the main excitation machine , and which is designed to generate an auxiliary excitation direct current that can be supplied to the main excitation machine by rectifying an auxiliary excitation three-phase current generated by the auxiliary excitation machine , and which is designed to regulate the current intensity of the auxiliary excitation direct current in such a manner that a magnetic flux generated between the rotor and the stator of the main excitation machine is kept constant independently of the current intensity of the excitation current that can be supplied to the excitation winding of the rotor of the synchronous machine ; and - at least one adjusting unit , which is connected in a rotationally fixed manner to a rotor shaft of the synchronous machine , is connected between the rotor of the main excitation machine and the excitation winding of the rotor of the synchronous machine , and is designed to generate the excitation current by rectifying an excitation three-phase voltage generated by the main excitation machine and to regulate the current intensity of the excitation current that can be supplied to the rotor of the synchronous machine .
Product in the form of a wire, a sheet or a strip, the product having a structured sinter-active surface of at least one refractory metal selected from the group consisting of titanium, molybdenum, tungsten, niobium, tantalum or an alloy containing one or more of these metals, wherein the surface is produced by anodic oxidation performed at a voltage between 1 V to 50,000 V in an electrolyte and subsequent re-reduction by treatment with magnesium vapor at temperatures between 650° and 1500°C.
A computer-implemented method for encryption and/or decryption comprising: with a first fixed-input-length tweakable block cipher, "FIL TBC", producing a fixed-length initialization vector; with a variable-input-length tweakable cipher, "VILTC", producing a variable-length output string using the fixed-length initialization vector as a tweak; and with a second FIL TBC, producing a fixed-length output string using the fixed-length initialization vector as input. with a first fixed-input-length tweakable block cipher, "FIL TBC", producing a fixed-length initialization vector; with a variable-input-length tweakable cipher, "VILTC", producing a variable-length output string using the fixed-length initialization vector as a tweak; and with a second FIL TBC, producing a fixed-length output string using the fixed-length initialization vector as input.
A pneumatic tire comprising: a tread portion, the tread portion comprising a tread cap layer and a tread base layer; the tread cap layer comprising a ground-contact surface; the tread portion comprising a sipe comprising an open end and a closed end, the sipe extending radially inward from the ground-contacting surface of the tread portion to at least the tread base layer; the tread cap layer being composed of a tread cap composition, the tread cap composition comprising 100 parts of at least one diene-based elastomer and less than 0.5 parts by weight of talc, based on 100 parts by weight of the elastomer; and the tread base layer underlying the tread cap layer, and the tread base layer being composed of a tread base composition, the tread base composition comprising 100 parts of at least one diene-based elastomer and a platelet type filler, the platelet type filler in the tread base composition being present in the range of 0.5 to 20 parts by weight based on 100 parts by weight of the elastomer in the tread base composition. a tread portion, the tread portion comprising a tread cap layer and a tread base layer; the tread cap layer comprising a ground-contact surface; the tread portion comprising a sipe comprising an open end and a closed end, the sipe extending radially inward from the ground-contacting surface of the tread portion to at least the tread base layer; the tread cap layer being composed of a tread cap composition, the tread cap composition comprising 100 parts of at least one diene-based elastomer and less than 0.5 parts by weight of talc, based on 100 parts by weight of the elastomer; and the tread base layer underlying the tread cap layer, and the tread base layer being composed of a tread base composition, the tread base composition comprising 100 parts of at least one diene-based elastomer and a platelet type filler, the platelet type filler in the tread base composition being present in the range of 0.5 to 20 parts by weight based on 100 parts by weight of the elastomer in the tread base composition.