mhurhangee/patent-ind-claim-en huggingface dataset:
Stirring element device, in particular for mixing media in a wide range of viscosities, in particular for a polycondensation reactor, with at least one inner stirring blade (10a-e) and at least one outer stirring blade (12a-e) which are rotatable around a common axis of rotation (14a-e), wherein at least the inner stirring blade (10a-e) is inclined at least section-wise relative to the axis of rotation (14a-e) and is at least partially formed as a screw (34a-e) centred around the axis of rotation (14a-e), wherein at least the inner stirring blade (10a-e) is arranged entirely in a subregion (16a-e) around the axis of rotation (14a-e) which is equivalent to a cylinder sector (18a-e) with a circular sector of less than 360° as base area, with at least one corresponding inner stirring blade (22a-e) arranged entirely in a corresponding subregion (24a-e) around the rotation axis (14a-e) which is equivalent to a corresponding cylinder sector (26a-e) with a circular sector as base area, wherein the subregion (16a-e) and the corresponding subregion (24a-e) do not overlap, and with at least one further outer stirring blade (46a-e), which has in a radial direction (48a-e) a greater distance from the axis of rotation (14a-e) than the outer stirring blade (12a-e), characterised in that the further outer stirring blade (46a-e) has a free end (54a-e) which tapers to a point. with at least one inner stirring blade (10a-e) and at least one outer stirring blade (12a-e) which are rotatable around a common axis of rotation (14a-e), wherein at least the inner stirring blade (10a-e) is inclined at least section-wise relative to the axis of rotation (14a-e) and is at least partially formed as a screw (34a-e) centred around the axis of rotation (14a-e), wherein at least the inner stirring blade (10a-e) is arranged entirely in a subregion (16a-e) around the axis of rotation (14a-e) which is equivalent to a cylinder sector (18a-e) with a circular sector of less than 360° as base area, with at least one corresponding inner stirring blade (22a-e) arranged entirely in a corresponding subregion (24a-e) around the rotation axis (14a-e) which is equivalent to a corresponding cylinder sector (26a-e) with a circular sector as base area, wherein the subregion (16a-e) and the corresponding subregion (24a-e) do not overlap, and with at least one further outer stirring blade (46a-e), which has in a radial direction (48a-e) a greater distance from the axis of rotation (14a-e) than the outer stirring blade (12a-e), characterised in that the further outer stirring blade (46a-e) has a free end (54a-e) which tapers to a point.
A motorized functional unit (20; 54) for toilets, comprising: - a motor (22; 52), - a self-starting pump connected to the motor and which is able to suction water through an inlet and to discharge the suctioned water through an outlet when the motor rotates in a first direction of rotation, - a comminutor turbine connected to the motor and which is able, on the one hand, to suction, through an inlet , wastewater and solid waste and to comminute the suctioned waste and, on the other hand, to discharge the comminuted wastewater and waste through an outlet when the motor rotates in a second direction of rotation opposite the first direction of rotation, - at least one control member of the motor that, upon actuation by user, can assume at least two possible control states, namely a first state in which the motor is controlled to rotate in the first direction of rotation and a second state in which the motor is controlled to rotate in the second direction of rotation, the comminutor turbine comprising peripheral members mounted on a central hub that both the pump or suction the wastewater and waste and comminute the waste. - a motor (22; 52), - a self-starting pump connected to the motor and which is able to suction water through an inlet and to discharge the suctioned water through an outlet when the motor rotates in a first direction of rotation, - a comminutor turbine connected to the motor and which is able, on the one hand, to suction, through an inlet , wastewater and solid waste and to comminute the suctioned waste and, on the other hand, to discharge the comminuted wastewater and waste through an outlet when the motor rotates in a second direction of rotation opposite the first direction of rotation, - at least one control member of the motor that, upon actuation by user, can assume at least two possible control states, namely a first state in which the motor is controlled to rotate in the first direction of rotation and a second state in which the motor is controlled to rotate in the second direction of rotation, the comminutor turbine comprising peripheral members mounted on a central hub that both the pump or suction the wastewater and waste and comminute the waste.
Method for producing a supporting structure for a passenger transport system, whereby the supporting structure comprises a framework with a bottom part, a center part, and a top part made from joined load-bearing framework components whereby at least the following semi- or fully automated process steps are sequentially performed during the process: a first joining step at a first joining station comprising - a retaining of framework components at a retention device and - a welding together of the framework components to form side parts of the bottom part , side parts of the center part , and side parts of the top part of the framework by means of at least one welding robot ; transfer of the side parts of the bottom part , side parts of the center part , and side parts of the top part produced in the first joining step to a second joining station; a second joining step at a second joining station comprising - a positioning welding together of two further framework components by producing tacked welding connections with the adjacently arranged side parts of the bottom part , of the center part , or respectively of the top part . a first joining step at a first joining station comprising - a retaining of framework components at a retention device and - a welding together of the framework components to form side parts of the bottom part , side parts of the center part , and side parts of the top part of the framework by means of at least one welding robot ; - a retaining of framework components at a retention device and - a welding together of the framework components to form side parts of the bottom part , side parts of the center part , and side parts of the top part of the framework by means of at least one welding robot ; transfer of the side parts of the bottom part , side parts of the center part , and side parts of the top part produced in the first joining step to a second joining station; a second joining step at a second joining station comprising - a positioning welding together of two further framework components by producing tacked welding connections with the adjacently arranged side parts of the bottom part , of the center part , or respectively of the top part . - a positioning welding together of two further framework components by producing tacked welding connections with the adjacently arranged side parts of the bottom part , of the center part , or respectively of the top part .
A method of operating a processor circuitry , comprising: - loading, from a memory , a first firmware and executing the first firmware , - generating a second firmware and writing the second firmware to the memory , and - in response to said generating of the second firmware : disabling further repetitions of said executing of the first firmware , characterized in that the second firmware is uniquely associated with the processor circuitry , generating the second firmware from the first firmware is based on an adaption of the executed first firmware , the memory is a non-volatile memory, and the first firmware is not uniquely identified and the second firmware is uniquely identified. - loading, from a memory , a first firmware and executing the first firmware , - generating a second firmware and writing the second firmware to the memory , and - in response to said generating of the second firmware : disabling further repetitions of said executing of the first firmware , generating the second firmware from the first firmware is based on an adaption of the executed first firmware , the memory is a non-volatile memory, and the first firmware is not uniquely identified and the second firmware is uniquely identified.
A coaptation-assist device for improving coaptation of native leaflets (LF) of an atrioventricular heart valve (MV), comprising: an elongate bladder having an atrial portion configured to be disposed in an atrium (LA) of the heart and a ventricular portion configured to be disposed in a ventricle (LV) of the heart, and a middle portion therebetween configured for contacting with the native leaflets (LF) during a systolic phase of the heart; wherein the middle portion comprises a surface against which at least a portion of the native leaflets (LF) can seal. an elongate bladder having an atrial portion configured to be disposed in an atrium (LA) of the heart and a ventricular portion configured to be disposed in a ventricle (LV) of the heart, and a middle portion therebetween configured for contacting with the native leaflets (LF) during a systolic phase of the heart; wherein the middle portion comprises a surface against which at least a portion of the native leaflets (LF) can seal.
A rotating-layering mold of rotating, according to a predetermined angle, plate materials punched by a cooperation of an upper mold and a lower mold so as to laminate the plate materials , wherein the rotating-layering mold comprises a squeeze ring provided with a holding hole of holding the punched plate materials , characterized in that : the squeeze ring is configured to rotate with respect to the lower mold such that an outer peripheral surface of the squeeze ring lies along an inner peripheral surface of the lower mold ; and the rotating-layering mold further comprises a first thrust bearing, a second thrust bearing, and a radial bearing in order to support the rotation of the squeeze ring with respect to the lower mold . the squeeze ring is configured to rotate with respect to the lower mold such that an outer peripheral surface of the squeeze ring lies along an inner peripheral surface of the lower mold ; and the rotating-layering mold further comprises a first thrust bearing, a second thrust bearing, and a radial bearing in order to support the rotation of the squeeze ring with respect to the lower mold .
A system comprising: a first lead configured to connect to existing vehicle wiring for activating a signal light of a right side of a vehicle; a first strobing light module having a first microcontroller connected to the first lead and configured to operate a first strobing light ; a second lead configured to connect to existing vehicle wiring for activating a signal light of a left side of the vehicle; and a second strobing light module having a second microcontroller connected to the second lead and configured to operate a second strobing light ; wherein the first and second microcontrollers are communicatively coupled, the first microcontroller configured to provide a first signal to the second microcontroller when the first microcontroller detects activation of the first lead, and the second microcontroller configured to provide a second signal to the first microcontroller when the second microcontroller detects activation of the second lead; charactered in that the first microcontroller is configured to strobe the first strobing light upon detecting activation of the first lead and receiving the second signal, and in that the second microcontroller is configured to strobe the second strobing light upon detecting activation of the second lead and receiving the first signal. a first lead configured to connect to existing vehicle wiring for activating a signal light of a right side of a vehicle; a first strobing light module having a first microcontroller connected to the first lead and configured to operate a first strobing light ; a second lead configured to connect to existing vehicle wiring for activating a signal light of a left side of the vehicle; and a second strobing light module having a second microcontroller connected to the second lead and configured to operate a second strobing light ; wherein the first and second microcontrollers are communicatively coupled, the first microcontroller configured to provide a first signal to the second microcontroller when the first microcontroller detects activation of the first lead, and the second microcontroller configured to provide a second signal to the first microcontroller when the second microcontroller detects activation of the second lead; charactered in that the first microcontroller is configured to strobe the first strobing light upon detecting activation of the first lead and receiving the second signal, and in that the second microcontroller is configured to strobe the second strobing light upon detecting activation of the second lead and receiving the first signal.
Device for processing a carcass part of slaughtered poultry in a processing line, which carcass part is supported on a carrier that is movable in said processing line and comprises wing joints , coracoids , a wishbone being embodied with two legs that merge into each other at an acute angle, a keel bone , and naturally present meat including inner and outer fillets , and wherein the device comprises means for cutting and/or removing of the wishbone from the carcass part , characterized in that the device further comprises means for moving the outer fillets away from the wishbone , without the meat of the outer fillets losing their connection with the remainder of the carcass part , wherein said means for moving the outer fillets away from the wishbone are arranged to be operational prior to the said means for cutting and/or removing of said wishbone from the carcass part .
A lighting device comprising a transmitter , a controller and a sensor ; wherein the controller is configured to control the transmitter to repeatedly transmit a second wireless message interleaved with a first wireless message , wherein the first wireless message has a first duration and comprises a first signal, wherein the second wireless message has a second duration and comprises a second signal; wherein the first duration and/or the second duration is adaptive during a lifetime of the lighting device; wherein the controller is configured to receive a measurement from the sensor and control the transmitter to transmit the second wireless message comprising the second signal comprising the measurement. wherein the controller is configured to control the transmitter to repeatedly transmit a second wireless message interleaved with a first wireless message , wherein the first wireless message has a first duration and comprises a first signal, wherein the second wireless message has a second duration and comprises a second signal; wherein the first duration and/or the second duration is adaptive during a lifetime of the lighting device; wherein the controller is configured to receive a measurement from the sensor and control the transmitter to transmit the second wireless message comprising the second signal comprising the measurement.
A data center network node comprising: a connection to a packet switched network for communication with other servers in the data center and/or external networks; and an optical switching arrangement comprising one or more switch (18,1 9,22,23) configured to link an optical transceiver to an optical connection comprising a multi-core optical fiber having a plurality of cores , and for each core , the one or more switch is configurable between a first configuration in which an optical signal on a said core of the multi-core optical fiber bypasses the optical transceiver and a second configuration in which the optical transceiver is optically linked to the said core of the multi-core optical fiber . a connection to a packet switched network for communication with other servers in the data center and/or external networks; and an optical switching arrangement comprising one or more switch (18,1 9,22,23) configured to link an optical transceiver to an optical connection comprising a multi-core optical fiber having a plurality of cores , and for each core , the one or more switch is configurable between a first configuration in which an optical signal on a said core of the multi-core optical fiber bypasses the optical transceiver and a second configuration in which the optical transceiver is optically linked to the said core of the multi-core optical fiber .
Method for operating a vehicle when an at least partially automated control function of the vehicle is granted priority, using a brake system which is designed with: a brake pedal to be mechanically actuated by a driver for making a braking request and a hydraulic transmission system for conducting a transmission medium which transmits the actuation of the brake pedal by the driver to a wheel brake , characterized in that the method comprises the following steps: a) checking a control function of the vehicle in order to verify a control function with a priority, b) deactivating an amplification device for the force when the brake pedal is actuated when an at least partially automated control function of the vehicle is granted priority in step a), c) temporarily storing a displaced volume of the transmission medium when the brake pedal is actuated, before the transmission medium has reached the wheel brake . a brake pedal to be mechanically actuated by a driver for making a braking request and a hydraulic transmission system for conducting a transmission medium which transmits the actuation of the brake pedal by the driver to a wheel brake , characterized in that the method comprises the following steps: a) checking a control function of the vehicle in order to verify a control function with a priority, b) deactivating an amplification device for the force when the brake pedal is actuated when an at least partially automated control function of the vehicle is granted priority in step a), c) temporarily storing a displaced volume of the transmission medium when the brake pedal is actuated, before the transmission medium has reached the wheel brake . a) checking a control function of the vehicle in order to verify a control function with a priority, b) deactivating an amplification device for the force when the brake pedal is actuated when an at least partially automated control function of the vehicle is granted priority in step a), c) temporarily storing a displaced volume of the transmission medium when the brake pedal is actuated, before the transmission medium has reached the wheel brake .
A spring steel wire comprising, by mass%, C: 0.40% to 0.75%, Si: 1.00% to 5.00%, Mn: 0.20% to 2.00%, P: 0.0001% to 0.0500%, S: 0.0001% to 0.0500%, Cr: 0.50% to 3.50%, Al: 0.0005% to 0.0500%, N: 0.0020% to 0.0100%, Mo: 0% to 2.00%, V: 0% to 0.50%, W: 0% to 0.50%, Nb: 0% to 0.100%, Ti: 0% to 0.100%, Ca: 0% to 0.0100%, Mg: 0% to 0.0100%, Zr: 0% to 0.1000%, B: 0% to 0.0100%, Cu: 0% to 1.00%, Ni: 0% to 3.00%, and a remainder of Fe and impurities, wherein a structure includes, by area ratio, a tempered martensite of 90% or more, wherein a prior austenite grain size number is No. 12.5 or higher, wherein a presence density of iron-based carbide having an equivalent circle diameter ranging from 0.15 μm to 0.50 μm is 0.40 pieces/μm 2 to 2.00 pieces/μm 2 , and wherein the prior austenite grain size number and the presence density of iron-based carbide are measured by the methods disclosed in the present application.
Absorption air conditioning device, in particular for a motor vehicle, comprising: - an evaporator and an absorber each having at least one dispersion plate through which a refrigerant fluid and an absorbent fluid pass, respectively, said dispersion plates being constituted by at least one grid and at least one of said dispersion plates being constituted by two parallel grids separated by a small distance of between 0 and 2.7 mm, and the grid constituting the dispersion plate traversed by an absorbent fluid being constituted by intertwined wires forming meshes, and said grid having the following characteristics: the wire size is between 30 and 400 micrometers, the mesh size has lengths between 100 and 2700 micrometers, and its material is made of absorbent fluid resistant plastic or absorbent fluid resistant steel. - an evaporator and an absorber each having at least one dispersion plate through which a refrigerant fluid and an absorbent fluid pass, respectively, said dispersion plates being constituted by at least one grid and at least one of said dispersion plates being constituted by two parallel grids separated by a small distance of between 0 and 2.7 mm, and the grid constituting the dispersion plate traversed by an absorbent fluid being constituted by intertwined wires forming meshes, and said grid having the following characteristics: the wire size is between 30 and 400 micrometers, the mesh size has lengths between 100 and 2700 micrometers, and its material is made of absorbent fluid resistant plastic or absorbent fluid resistant steel.
A pigmented coating material comprising at least one inorganic white pigment and at least one infrared radiation (IR)-absorbing material in an amount of 0.01 to 5% by weight, based the inorganic white pigment, the pigmented coating material being a masonry paint or a render, the pigmented coating material comprising 3% to 20% by weight of inorganic white pigment, based on the pigmented coating material, and the IR-absorbing material being a tungsten bronze.
An adapter comprising: a first connector adapted for connection to a syringe; a second connector independent of the first connector adapted for connection to a catheter hub ; a bridging piece disposed between and connecting the first connector and the second connector ; the first connector being a proximal connector, the second connector being a distal connector ; characterized by a tube connected to and extending from the proximal connector through and past the distal connector ; wherein said bridging piece is configured to allow adjustment of a position of the distal connector relative to and over the tube and between the proximal connector and the distal connector. a first connector adapted for connection to a syringe; a second connector independent of the first connector adapted for connection to a catheter hub ; a bridging piece disposed between and connecting the first connector and the second connector ; the first connector being a proximal connector, the second connector being a distal connector ; characterized by a tube connected to and extending from the proximal connector through and past the distal connector ; wherein said bridging piece is configured to allow adjustment of a position of the distal connector relative to and over the tube and between the proximal connector and the distal connector.