mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a motor vehicle , in which - by means of a sensor apparatus of the motor vehicle a stopping point for the motor vehicle is determined, - the motor vehicle exchanges a driving information with at least one further motor vehicle and, depending on the driving information, determines the stopping point , wherein, by means of the exchange of the driving information between the motor vehicles, stopping procedures of the motor vehicles are coordinated with one another, - the motor vehicle determines a necessity of stopping at the stopping point , - if the necessity at the stopping point exists , the motor vehicle effects a stopping of the motor vehicle , and, - if the necessity does not exist a control apparatus of the motor vehicle carries out a movement of the motor vehicle or outputs an instruction to a driver of the motor vehicle which characterises the non-existence of the necessity, characterised in that the motor vehicle receives from the driver by means of voice control and/or gesture control a setting information with regard to a position to be set of the stopped motor vehicle and, depending thereon, sets the position of the motor vehicle , and the motor vehicle stores the position to be set depending on the stopping point in a driver-specific manner. - by means of a sensor apparatus of the motor vehicle a stopping point for the motor vehicle is determined, - the motor vehicle exchanges a driving information with at least one further motor vehicle and, depending on the driving information, determines the stopping point , wherein, by means of the exchange of the driving information between the motor vehicles, stopping procedures of the motor vehicles are coordinated with one another, - the motor vehicle determines a necessity of stopping at the stopping point , - if the necessity at the stopping point exists , the motor vehicle effects a stopping of the motor vehicle , and, - if the necessity does not exist a control apparatus of the motor vehicle carries out a movement of the motor vehicle or outputs an instruction to a driver of the motor vehicle which characterises the non-existence of the necessity,
Ultrasonic treatment apparatus comprising a handpiece unit and at least one removable treatment attachment , which comprises a head section (3.1), an adjoining elongate connecting section (3.2) and a coupling section (3.3), wherein the coupling section (3.3) is configured for establishing an electromechanical connection to the handpiece unit and the treatment attachment comprises an ultrasonic transducer in the region of the head section (3.1) for generating ultrasonic shockwaves, wherein the treatment attachment is formed as a removable tongue treatment attachment with a flat head section (3.1), wherein the flat head section (3.1) comprises a front side (3.11) forming the treatment surface and a rear side (3.12) lying opposite said front side, and wherein the tongue treatment attachment comprises a recess (3.4), which is open towards the rear side (3.12) of the flat head section (3.1), for receiving the ultrasonic transducer , wherein an elastic closing element (3.5) is provided for the hermetically tight closure of the recess (3.4) and the elastic closing element (3.5) forms an elastic closing cover, characterized in that the closing cover is made of a rubber-like plastic material.
A primer pair comprising a forward primer and a reverse primer capable of amplifying a nucleic acid from a pathogen associated with a skin, hair and nail infection, wherein the amplified nucleic acid comprises SEQ ID NO22, wherein the forward primer hybridizes specifically to a region of the pathogen's genome upstream of SEQ ID NO22 and the reverse primer hybridizes specifically to a region of the pathogen's genome downstream of SEQ ID NO22, wherein the distance between the final base pair of the forward primer, in its 5'-3' orientation, and the first base pair of SEQ ID NO22, in its 5'-3' orientation, is 200, 100 or less base pairs, wherein the distance between the final base pair of the reverse primer, in its 5'-3' orientation, and the final base pair of SEQ ID NO22, in its 5'-3' orientation, is 200, 100 or less base pairs, wherein each primer has a length of 10 to 40, 12 to 35, or 14 to 30 nucleotides and wherein the pathogen is selected from the group comprising T. tonsurans, T. equinum, T. interdigitale, T. benhamiae (african), T. benhamiae (yellow), T. concentricum and T. erinacei.
A vaginal endoscopic port unit module for laparoscopic surgery, which is configured to be positioned at one end thereof inside the human body and at the other end thereof outside the human body through a vaginal orifice , the module comprising: an outer unit whose end is disposed so as to be exposed to the outside of the vaginal orifice and which includes at least one outer port configured to permit entry of a surgical instrument including an endoscope; an inner unit configured to be disposed at an incision site formed on the inner wall of the vaginal canal so as to fluidically communicate with the abdominal cavity , and include an inner port permitting introduction and withdrawal of the surgical instrument introduced thereto through the at least one outer port into and from the abdominal cavity (3; and a runner unit that connects the outer unit to the inner unit , characterized in the inner unit comprising an inner unit header having a diffuser structure that is configured to be widened after the insertion thereof into the incision site formed on the inner wall of the vaginal canal ; and in that an inner shape of the inner port has a diffuser structure at the end of the inner unit header that is configured to be introduced into the abdominal cavity . an outer unit whose end is disposed so as to be exposed to the outside of the vaginal orifice and which includes at least one outer port configured to permit entry of a surgical instrument including an endoscope; an inner unit configured to be disposed at an incision site formed on the inner wall of the vaginal canal so as to fluidically communicate with the abdominal cavity , and include an inner port permitting introduction and withdrawal of the surgical instrument introduced thereto through the at least one outer port into and from the abdominal cavity (3; and a runner unit that connects the outer unit to the inner unit , characterized in the inner unit comprising an inner unit header having a diffuser structure that is configured to be widened after the insertion thereof into the incision site formed on the inner wall of the vaginal canal ; and in that an inner shape of the inner port has a diffuser structure at the end of the inner unit header that is configured to be introduced into the abdominal cavity .
A process for processing of a product stream (a) comprising acetic acid, unreacted cyclohexanone, reaction water and organic heavy ends, which product stream (a) is yielded in a caprolactone production wherein peracetic acid is generated from acetic acid and hydrogen peroxide and wherein said peracetic acid is subjected to a Baeyer-Villiger reaction with cyclohexanone characterised in, that said process comprises and involves a divided wall column having an upper section , a bottom section , a feed section and a take-off section , that said product stream (a) is fed to said feed section via an inlet in the middle of said feed section , that said product stream (a) in said feed section by distillation is separated in a water/acetic acid fraction (b) and a cyclohexanone/heavy end fraction (c), which water/acetic acid fraction (b) via an outlet in said upper section and an inlet is fed to a separator , that said acetic acid/water fraction is a homogeneous azeotrope which in presence of at least one entrainer is broken and in said separator separated in an organic phase (d) comprising acetic acid and a minor amount of water and a water phase (e) comprising water and a minor amount of acetic acid, that said organic phase (d) comprising acetic acid and a minor amount of water is fed to said divided wall column through an outlet in said separator and an inlet in said upper section and further evaporated yielding high concentrated acetic acid (f) being taken out via an outlet in the middle of said take-off section and either recycled to said peracetic acid generation or fed to a storage tank, and the water phase (e) comprising water and a minor amount of acetic acid is either dumped via an outlet or via said outlet in said separator fed to a distillation column via an inlet and further processed whereby water and said minor amount of acetic acid is separated in an acidic fraction (h) being recycled to said separator via an outlet arranged at said column and an inlet on said separator and a water fraction (i) being dumped or sent for further processing via an outlet at the bottom of said column , and that said cyclohexanone/heavy end fraction (c), via an outlet in said bottom section and via an inlet is fed to a distillation column wherein cyclohexanone and heavy ends are separated in a purified cyclohexanone fraction (g) which via an outlet either is recycled to said Baeyer-Villiger reaction or fed to a storage tank and a heavy end fraction (j) which via an outlet is either dumped or sent to destruction or to further processing.
Low-dropout voltage regulatorm LDO, apparatus comprising: - a voltage input (Vin) coupleable to a power supply , - an error amplifier , coupled to the voltage input (Vin) and configured to receive a reference voltage signal and a feedback voltage signal and to generate an output control signal (Ctrl) dependent on the reference voltage signal and the feedback signal, the error amplifier comprising a current adjusting circuit , - a pass transistor (MP) coupled to the error amplifier and configured to receive the output control signal (Ctrl) of the error amplifier and to provide an output current for an output (OUT) of the low-dropout voltage regulator apparatus dependent on the output control signal (Ctrl), - a detection circuit coupled to the voltage input (Vin) and configured to provide an output signal on its output dependent on an input voltage (V_in) provided on the voltage input (Vin) of the LDO apparatus , - a bias generator coupled with the output of the detection circuit and configured to provide a bias current (I_bias) on a bias input of the current adjusting circuit of the error amplifier , the LDO apparatus characterised in that the bias generator is configured to provide the bias current (I_bias) dependent on the output signal of the detection circuit wherein the bias current (I_bias) is proportional to a voltage difference between the input voltage (V_in) of the LDO apparatus and a given reference voltage (V_ref2). - a voltage input (Vin) coupleable to a power supply , - an error amplifier , coupled to the voltage input (Vin) and configured to receive a reference voltage signal and a feedback voltage signal and to generate an output control signal (Ctrl) dependent on the reference voltage signal and the feedback signal, the error amplifier comprising a current adjusting circuit , - a pass transistor (MP) coupled to the error amplifier and configured to receive the output control signal (Ctrl) of the error amplifier and to provide an output current for an output (OUT) of the low-dropout voltage regulator apparatus dependent on the output control signal (Ctrl), - a detection circuit coupled to the voltage input (Vin) and configured to provide an output signal on its output dependent on an input voltage (V_in) provided on the voltage input (Vin) of the LDO apparatus , - a bias generator coupled with the output of the detection circuit and configured to provide a bias current (I_bias) on a bias input of the current adjusting circuit of the error amplifier , the LDO apparatus characterised in that the bias generator is configured to provide the bias current (I_bias) dependent on the output signal of the detection circuit wherein the bias current (I_bias) is proportional to a voltage difference between the input voltage (V_in) of the LDO apparatus and a given reference voltage (V_ref2).
Electrode for enzymatic biosensor being in the form of a fibrous material and comprising electrically conductive fibres and electrically non-conductive fibres, all or part of said non-conductive fibres being functionalised by enzymes, identical or different, said electrically conductive fibres being non-functionalised by enzymes, and said enzymes being distributed over the whole of the lateral part of said non-conductive fibres. all or part of said non-conductive fibres being functionalised by enzymes, identical or different, said electrically conductive fibres being non-functionalised by enzymes, and said enzymes being distributed over the whole of the lateral part of said non-conductive fibres.
A compressor comprising: a compression mechanism that compresses low-pressure refrigerant in a compression chamber (C1, S1, S2) into high-pressure refrigerant; an injection pipe for supplying intermediate-pressure refrigerant to the compression chamber, and a valve assembly between the compression chamber and the injection pipe, the valve assembly comprising: an opening forming member that forms an opening ; wherein it further comprises a valve body that moves in accordance with differences between the pressure of the refrigerant supplied from the injection pipe and the pressure of the refrigerant in the middle of compression in the compression chamber and blocks the opening when the valve body has moved from the compression chamber side to the injection pipe side; and a spring member that is disposed on the injection pipe side of the opening, characterised in that the spring member applies force in the direction of the injection pipe to the valve body. a compression mechanism that compresses low-pressure refrigerant in a compression chamber (C1, S1, S2) into high-pressure refrigerant; an injection pipe for supplying intermediate-pressure refrigerant to the compression chamber, and a valve assembly between the compression chamber and the injection pipe, the valve assembly comprising: an opening forming member that forms an opening ; wherein it further comprises a valve body that moves in accordance with differences between the pressure of the refrigerant supplied from the injection pipe and the pressure of the refrigerant in the middle of compression in the compression chamber and blocks the opening when the valve body has moved from the compression chamber side to the injection pipe side; and a spring member that is disposed on the injection pipe side of the opening, characterised in that the spring member applies force in the direction of the injection pipe to the valve body. an opening forming member that forms an opening ; wherein it further comprises a valve body that moves in accordance with differences between the pressure of the refrigerant supplied from the injection pipe and the pressure of the refrigerant in the middle of compression in the compression chamber and blocks the opening when the valve body has moved from the compression chamber side to the injection pipe side; and a spring member that is disposed on the injection pipe side of the opening, characterised in that the spring member applies force in the direction of the injection pipe to the valve body.
A method for manufacturing a box including at least three at least partially rigid side flaps , said at least three side flaps being obtained by folding at least one first sheet , said first sheet being of metal, and by shaping at least one second sheet (16-19), the shaping step includes a step of folding (i) said second sheet (16-19), said at least one second sheet (16-19) being of metal, said method being characterised in that it includes the following steps of: before folding said at least one first and second metal sheets: - embossing or offset printing said first metal sheet, - embossing or offset printing said second metal sheet, and after folding said at least first and second metal sheets: - applying a layer of a securing material (20; 21) to a surface of at least one part of said first sheet, - positioning said at least one second sheet (16-19) on said part of said first sheet covered with said securing material (20; 21), in order to obtain a sandwich structure , the securing material being an internal layer providing securing of two external layers , said two external layers being said first and second metal sheets (16, 16-19). before folding said at least one first and second metal sheets: - embossing or offset printing said first metal sheet, - embossing or offset printing said second metal sheet, - embossing or offset printing said first metal sheet, - embossing or offset printing said second metal sheet, and after folding said at least first and second metal sheets: - applying a layer of a securing material (20; 21) to a surface of at least one part of said first sheet, - positioning said at least one second sheet (16-19) on said part of said first sheet covered with said securing material (20; 21), in order to obtain a sandwich structure , the securing material being an internal layer providing securing of two external layers , said two external layers being said first and second metal sheets (16, 16-19). - applying a layer of a securing material (20; 21) to a surface of at least one part of said first sheet, - positioning said at least one second sheet (16-19) on said part of said first sheet covered with said securing material (20; 21), in order to obtain a sandwich structure , the securing material being an internal layer providing securing of two external layers , said two external layers being said first and second metal sheets (16, 16-19).
A 3D printing pen drawing template in the form of a modular modelling kit for drawing geometric structures corresponding to models of chemical molecules, the modular modelling kit comprising construction modules , wherein each construction module comprises: - a base that is substantially flat, at least one post that is substantially vertical and protruding from the base , with a contact point at an end of a free tip of the post , - connection means formed at the base for connecting the base with connection means of other construction modules of the kit, wherein at least two construction modules (1a-1h) differ from each other by a configuration of posts and at least two construction modules (1a-1h) differ from each other by a configuration of connection means . - a base that is substantially flat, at least one post that is substantially vertical and protruding from the base , with a contact point at an end of a free tip of the post , - connection means formed at the base for connecting the base with connection means of other construction modules of the kit,
An exoskeleton robot , comprising: a waist assembly including: a first frame including a first rail and a first slider inside the first rail, a plate fixed by a first bolt screwed into the first slider, and a second frame connected to the plate, wherein the second frame having a slot and a second bolt inside the slot; a leg assembly installed to the second frame by the second bolt; a back stand installed to the first frame; a chest assembly installed to the back stand and including: a third frame installed to the back stand and having a second rail and a second slider inside the second rail; and a chest board installed to the third frame and fixed by a third bolt screwed into the second slider. a waist assembly including: a first frame including a first rail and a first slider inside the first rail, a plate fixed by a first bolt screwed into the first slider, and a second frame connected to the plate, wherein the second frame having a slot and a second bolt inside the slot; a first frame including a first rail and a first slider inside the first rail, a plate fixed by a first bolt screwed into the first slider, and a second frame connected to the plate, wherein the second frame having a slot and a second bolt inside the slot; a leg assembly installed to the second frame by the second bolt; a back stand installed to the first frame; a chest assembly installed to the back stand and including: a third frame installed to the back stand and having a second rail and a second slider inside the second rail; and a chest board installed to the third frame and fixed by a third bolt screwed into the second slider. a third frame installed to the back stand and having a second rail and a second slider inside the second rail; and a chest board installed to the third frame and fixed by a third bolt screwed into the second slider.
Device for controlling the load of a fluid pump that is accommodated in a combination having a driving motor for said fluid pump, wherein at an exit side the fluid pump is coupled to an outlet conduit , characterized in that, the device is provided by an assembly that is a mobile unit and that comprises a conduit system, comprising an inlet conduit that can be coupled to the outlet conduit , which inlet conduit branches into a first conduit part and a second conduit part , wherein a controllable closing valve is accommodated in the first conduit part and a turbine is accommodated in the second conduit part , and wherein a pressure sensor is accommodated in one of the outlet conduit , the inlet conduit , the first conduit part and the second conduit part , a generator that is drivable by the turbine , and a measurement and control circuit that can be coupled to the pressure sensor and the controllable closing valve for consecutively setting a target value of the fluid pressure in the outlet conduit and in a coupled condition of the outlet conduit and the conduit system in dependence on the value of the fluid pressure as measured by the pressure sensor , controlling the controllable closing valve such that the measured value of the fluid pressure corresponds to the target value. characterized in that, the device is provided by an assembly that is a mobile unit and that comprises a conduit system, comprising an inlet conduit that can be coupled to the outlet conduit , which inlet conduit branches into a first conduit part and a second conduit part , wherein a controllable closing valve is accommodated in the first conduit part and a turbine is accommodated in the second conduit part , and wherein a pressure sensor is accommodated in one of the outlet conduit , the inlet conduit , the first conduit part and the second conduit part , a generator that is drivable by the turbine , and a measurement and control circuit that can be coupled to the pressure sensor and the controllable closing valve for consecutively setting a target value of the fluid pressure in the outlet conduit and in a coupled condition of the outlet conduit and the conduit system in dependence on the value of the fluid pressure as measured by the pressure sensor , controlling the controllable closing valve such that the measured value of the fluid pressure corresponds to the target value.