mhurhangee/patent-ind-claim-en huggingface dataset:
An assembly structure, comprising: a circuit board , configured to provide a first power supply; a chip ; and a power converting module , configured to electrically connect the circuit board and the chip , convert the first power supply to a second power supply, and supply the second power supply to the chip , wherein the circuit board, the chip and the power converting module are stacked to form the assembly structure, the chip and the power converting module are located at two opposite sides of the circuit board respectively, where: the power converting module has a first electrical connecting surface and a second electrical connecting surface, the first electrical connecting surface is located at an upper surface of the power converting module within the stack, the second electrical connecting surface is located at a lower surface of the power converting module within the stack and is different from the first electrical connecting surface, and the first electrical connecting surface is configured to electrically connect to the circuit board directly, and the assembly structure further comprises a connector , configured to electrically connect the second electrical connecting surface to the circuit board . a circuit board , configured to provide a first power supply; a chip ; and a power converting module , configured to electrically connect the circuit board and the chip , convert the first power supply to a second power supply, and supply the second power supply to the chip , wherein the circuit board, the chip and the power converting module are stacked to form the assembly structure, the chip and the power converting module are located at two opposite sides of the circuit board respectively, where: the power converting module has a first electrical connecting surface and a second electrical connecting surface, the first electrical connecting surface is located at an upper surface of the power converting module within the stack, the second electrical connecting surface is located at a lower surface of the power converting module within the stack and is different from the first electrical connecting surface, and the first electrical connecting surface is configured to electrically connect to the circuit board directly, and the assembly structure further comprises a connector , configured to electrically connect the second electrical connecting surface to the circuit board . the power converting module has a first electrical connecting surface and a second electrical connecting surface, the first electrical connecting surface is located at an upper surface of the power converting module within the stack, the second electrical connecting surface is located at a lower surface of the power converting module within the stack and is different from the first electrical connecting surface, and the first electrical connecting surface is configured to electrically connect to the circuit board directly, and the assembly structure further comprises a connector , configured to electrically connect the second electrical connecting surface to the circuit board .
A valve comprising a transponder and a transponder frame in which the transponder is arranged, wherein the transponder frame is made of a metal alloy, wherein an outer opening of the transponder frame is closed with a sealing compound , wherein the sealing compound is not electrically conductive and not magnetizable, whereby the transponder can be addressed wirelessly through the sealing compound , wherein the transponder frame is connected to an outer surface of a component of the valve , wherein a receiving space of the transponder frame in the direction of the outer opening is delimited by an annular stop area , which limits a movement of the transponder in the direction of the outer opening , the outer opening facing outwards from the surface of the component having a smaller diameter than the receiving space , the transponder frame being constructed rotationally symmetrically about an axis of rotation characterized in that the diameter of the receiving space of the transponder frame transverse to the axis of rotation is adapted to an outer diameter of the transponder in such a way that the transponder is held in the transponder frame by a press fit.
A forehead coupler configured to connect first and second forehead straps of a headgear together in a closed loop and connect the headgear to a frame comprising: a pair of lateral strap connectors ; and a frame connector configured to link the strap connectors together; wherein the frame connector comprises a crossbar and a rib slot , the rib slot is formed within a thin flange that extends upwardly from the crossbar and extends between the two strap connectors , the thin flange creating a recess on a front side of the frame connector . a pair of lateral strap connectors ; and a frame connector configured to link the strap connectors together; wherein the frame connector comprises a crossbar and a rib slot , the rib slot is formed within a thin flange that extends upwardly from the crossbar and extends between the two strap connectors , the thin flange creating a recess on a front side of the frame connector .
A protection device for disc brakes of velocipedes of the racing bike, mountain bike, city bike, electric pedal assisted cycle, and/or small motorcycle type, which comprises an interchangeable brake guard , secured to a wheel of the velocipede, arranged coaxially to a disc and featuring a basically "C"-like cross-sectional profile which comprises a front side intended for covering a front surface of the disc , a rear side (12", 16", 17') intended for partially covering a rear surface of the disc in correspondence with a brake track onto which pads of a brake caliper act on, and an intermediate side (12"', 16"', 17") intended for connecting said front side and rear side (12", 16", 17') to each other and for covering a peripheral circumferential edge of the disc , characterised in that said brake guard comprises a central opening or hole shaped for a quick coupling and an anti-rotation of said brake guard with respect to an axle of a hub of the wheel which the protection device is secured to.
Foldable urinary catheter for draining the human bladder defining an internal flow path for the urine, with a catheter tube for insertion into the urethra, the catheter tube comprising at least one hinge (7; 7.1; 7.2; 7.3; 7.4; 7.5) which is conceived to bring the catheter in a folded, compact storage condition and an unfolded, straight ready-for-use condition, characterized in that the at least one hinge (7; 7.1; 7.2; 7.3; 7.4; 7.5) is provided in an insertable length of the catheter tube and comprises means (11, 13; 14, 15, 16; 23; 28; 34) for stabilizing the ready-for-use condition.
Process for marking a surface of a refractory ceramic part, known as the "surface to be marked", said part having - a microstructure comprising grains each including more than 50% by mass of ZrO 2 , bound by a silicate binder phase, - a total porosity of less than 5% by volume, said process involving irradiation of said surface with a laser beam, the beam being emitted by a laser device set to comply with relationship below: a .V 2 + b . F 2 + c .VF + d .V + e .F + f < 0 , in which: a = 10 4 . D + 2×10 6 b = 0.5×10 6 . D - 150×10 6 c = 0.5×10 6 . D - 300×10 6 d = 5×10 3 . D - 2.5×10 6 e = -5×10 3 . D + 2.0×10 6 f = -5×10 9 . D + 1.8×10 12 the linear displacement speed "V" of the incident beam on the surface of the refractory ceramic part being expressed in mm/second, the focal distance "D" being expressed in mm and the pulse frequency "F" of the laser being expressed in kHz. - a microstructure comprising grains each including more than 50% by mass of ZrO 2 , bound by a silicate binder phase, - a total porosity of less than 5% by volume, a = 10 4 . D + 2×10 6 b = 0.5×10 6 . D - 150×10 6 c = 0.5×10 6 . D - 300×10 6 d = 5×10 3 . D - 2.5×10 6 e = -5×10 3 . D + 2.0×10 6 f = -5×10 9 . D + 1.8×10 12
Method of analysing by capillary electrophoresis one or more glycated hemoglobin(s) having at least one beta globin chain having a glucose residue bound to the N-terminal amino acid, said one or more glycated hemoglobin(s) being contained in a biological sample comprising hemoglobins, said method comprising the following steps: a.introducing into an electrophoresis capillary a buffer composition and the biological sample; the buffer composition comprising at least one compound which specifically complexes the glucose residues bound to an amino acid located in the N-terminal position in the glycated haemoglobin(s) of the biological sample and provides this/these glycated haemoglobin(s) with a plurality of negative electric charges at alkaline pH, said compound comprising two or more functional groups: i. at least one of these functional groups specifically complexing one or more glucose residue(s), thereby providing a negative electrical charge per complexed glucose residue, and ii. the other, one of the other or other functional group(s) not complexing said glucose residue(s), conferring one or more negative electrical charge(s) at alkaline pH on said glycated haemoglobin(s), b. separating the components of the biological sample by capillary electrophoresis; and c. detecting one or more haemoglobin(s) present in the biological sample and generating an electropherogram from the detection signal, which is proportional to the amount of haemoglobin(s) detected. a.introducing into an electrophoresis capillary a buffer composition and the biological sample; the buffer composition comprising at least one compound which specifically complexes the glucose residues bound to an amino acid located in the N-terminal position in the glycated haemoglobin(s) of the biological sample and provides this/these glycated haemoglobin(s) with a plurality of negative electric charges at alkaline pH, said compound comprising two or more functional groups: i. at least one of these functional groups specifically complexing one or more glucose residue(s), thereby providing a negative electrical charge per complexed glucose residue, and ii. the other, one of the other or other functional group(s) not complexing said glucose residue(s), conferring one or more negative electrical charge(s) at alkaline pH on said glycated haemoglobin(s), i. at least one of these functional groups specifically complexing one or more glucose residue(s), thereby providing a negative electrical charge per complexed glucose residue, and ii. the other, one of the other or other functional group(s) not complexing said glucose residue(s), conferring one or more negative electrical charge(s) at alkaline pH on said glycated haemoglobin(s), b. separating the components of the biological sample by capillary electrophoresis; and c. detecting one or more haemoglobin(s) present in the biological sample and generating an electropherogram from the detection signal, which is proportional to the amount of haemoglobin(s) detected.
A method of encapsulating digital communications signals for transmission on a communications link, the method comprising steps of: a. receiving a first digital communications signal of a first signal type, the first digital communications signal comprising a first clock signal and receiving a second digital communications signal of a second signal type, different to the first signal type, the second digital communications signal comprising a second clock signal different to the first clock signal, each clock signal having a respective clock value and accuracy; b. obtaining the first clock signal; c. obtaining a difference between at least one of the clock values of the first and second clock signals and the accuracies of the first and second clock signals, and buffering the second digital communications signal for a time at least long enough to compensate for the difference, wherein after buffering the second digital communications signal, the second digital communications signal is synchronous with the first digital communications signal; and d. assembling the first digital communications signal and the buffered second digital communications signal into a frame for transmission, the frame comprising an overhead and a payload, the payload comprising a first portion and a second portion, the first digital communications signal being mapped into the first portion and the second digital communications signal being mapped into the second portion, wherein step d. is performed using the first clock signal. a. receiving a first digital communications signal of a first signal type, the first digital communications signal comprising a first clock signal and receiving a second digital communications signal of a second signal type, different to the first signal type, the second digital communications signal comprising a second clock signal different to the first clock signal, each clock signal having a respective clock value and accuracy; b. obtaining the first clock signal; c. obtaining a difference between at least one of the clock values of the first and second clock signals and the accuracies of the first and second clock signals, and buffering the second digital communications signal for a time at least long enough to compensate for the difference, wherein after buffering the second digital communications signal, the second digital communications signal is synchronous with the first digital communications signal; and d. assembling the first digital communications signal and the buffered second digital communications signal into a frame for transmission, the frame comprising an overhead and a payload, the payload comprising a first portion and a second portion, the first digital communications signal being mapped into the first portion and the second digital communications signal being mapped into the second portion,
Method for determining a position and an orientation of an endoscope in a cavity in a technical object, wherein the endoscope comprises an elongated shaft , which extends into the cavity through an endoscopic insertion device connected to an access opening of the cavity , wherein an acceleration acting on the endoscope is detected by means of at least one acceleration sensor associated with the endoscope and a rotational movement of the endoscope is detected by means of at least one rotation rate sensor associated with the endoscope , wherein an insertion movement of the shaft relative to the insertion device is detected with at least one insertion sensor associated with the insertion device and wherein a position and an orientation of the endoscope is determined on the basis of the detected acceleration, rotational movement and insertion movement.
An oral solid preparation comprising an active ingredient, the active ingredient comprises a crystalline form of the compound of formula (A): preferably, the oral solid preparation further comprises a disintegrant, a disintegrant assistant, an excipient and a lubricant.
Switch unit and housing, wherein the switch unit comprises: at least one first contact device , at least one second contact device , a closing element which is movably mounted and/or deformable for creating and separating an electrical connection between the first contact device and the second contact device , an electrically conductive actuating element which is assigned to the closing element , a first switch circuit (S1) which contains the first contact device , the second contact device and the closing element , a second switch circuit (S2) which contains the actuating element , the closing element and the second contact device , characterised in that the housing in which the switch unit is integrated consists at least on the inside of an electrically conductive polymer which has an electrically conductive connection with the actuating element via contacting and which furthermore may be connected to an external evaluation unit via a further contact. at least one first contact device , at least one second contact device , a closing element which is movably mounted and/or deformable for creating and separating an electrical connection between the first contact device and the second contact device , an electrically conductive actuating element which is assigned to the closing element , a first switch circuit (S1) which contains the first contact device , the second contact device and the closing element , a second switch circuit (S2) which contains the actuating element , the closing element and the second contact device , characterised in that the housing in which the switch unit is integrated consists at least on the inside of an electrically conductive polymer which has an electrically conductive connection with the actuating element via contacting and which furthermore may be connected to an external evaluation unit via a further contact.
Screw , having: an axially extending shaft section ; a screw thread on the shaft section , which has thread turns extending radially from the shaft section ; wherein the shaft section has a discontinuity on an intermediate threaded section between adjacent thread turns ; wherein exactly two partial sections are provided in the intermediate threaded section and the discontinuity is provided between the two partial sections , characterized in that one of the first partial section and the second partial section is a portion that is tapered with respect to a screw axis and the other one of the first partial section and the second partial section is a portion that is axially parallel with respect to the screw axis. an axially extending shaft section ; a screw thread on the shaft section , which has thread turns extending radially from the shaft section ; wherein the shaft section has a discontinuity on an intermediate threaded section between adjacent thread turns ; wherein exactly two partial sections are provided in the intermediate threaded section and the discontinuity is provided between the two partial sections , characterized in that one of the first partial section and the second partial section is a portion that is tapered with respect to a screw axis and the other one of the first partial section and the second partial section is a portion that is axially parallel with respect to the screw axis.
A method for manufacturing a plugged honeycomb structure , the method comprising: a step of mixing ceramic particles with a gas on one end face side of the plugged honeycomb structure , and a step of sucking the gas containing the ceramic particles from the other end face side of the plugged honeycomb structure to send the ceramic particles mixed in the gas into cells of the plugged honeycomb structure to allow the ceramic particles to adhere to surfaces in the cells of the plugged honeycomb structure ; wherein, in the gas containing the ceramic particles , mass of the ceramic particles per volume of the gas is 20 g/m 3 or more and 1600 g/m 3 or less; the flow rate of the gas containing the ceramic particles in the cells is 2 m/sec. or more and 100 m/sec. or less; the average particle diameter of the ceramic particles and the average pore size of the plugged honeycomb structure are such that the value of ceramic particle average particle diameter / plugged honeycomb structure average pore size is above 0.02 and below 1.5 and, wherein in the step of mixing, the gas is sent into an ejector at high speed to generate negative pressure, and thereby the ceramic particles are sucked to be mixed with the gas, and a fixed amount of the ceramic particles is supplied from a ceramic particle supplier ; wherein the ceramic particles adhering to the one end face of the plugged honeycomb structure are removed after the step of allowing the ceramic particles to adhere to the surfaces of the plugged honeycomb structure in the cells. a step of mixing ceramic particles with a gas on one end face side of the plugged honeycomb structure , and a step of sucking the gas containing the ceramic particles from the other end face side of the plugged honeycomb structure to send the ceramic particles mixed in the gas into cells of the plugged honeycomb structure to allow the ceramic particles to adhere to surfaces in the cells of the plugged honeycomb structure ; wherein, in the gas containing the ceramic particles , mass of the ceramic particles per volume of the gas is 20 g/m 3 or more and 1600 g/m 3 or less; the flow rate of the gas containing the ceramic particles in the cells is 2 m/sec. or more and 100 m/sec. or less; the average particle diameter of the ceramic particles and the average pore size of the plugged honeycomb structure are such that the value of ceramic particle average particle diameter / plugged honeycomb structure average pore size is above 0.02 and below 1.5 and, wherein in the step of mixing, the gas is sent into an ejector at high speed to generate negative pressure, and thereby the ceramic particles are sucked to be mixed with the gas, and a fixed amount of the ceramic particles is supplied from a ceramic particle supplier ; wherein the ceramic particles adhering to the one end face of the plugged honeycomb structure are removed after the step of allowing the ceramic particles to adhere to the surfaces of the plugged honeycomb structure in the cells.
A connection structure of a bus bar and a cable comprising: a bus bar that serves as an external terminal; a cable that includes a core wire exposed from an insulation sheath at a terminal of the cable , a cut portion that is formed in the core wire , the connection structure being characterized in that the cut portion comprises: a joining surface joined with a joining portion of the bus bar by resistance welding or ultrasonic welding, and a vertical surface which is formed perpendicular to an axial direction (Y) of the core wire , the connection structure further comprising: a protective member that covers at least the joining portion of the bus bar and the core wire of the cable . a bus bar that serves as an external terminal; a cable that includes a core wire exposed from an insulation sheath at a terminal of the cable , a cut portion that is formed in the core wire , the connection structure being characterized in that the cut portion comprises: a joining surface joined with a joining portion of the bus bar by resistance welding or ultrasonic welding, and a vertical surface which is formed perpendicular to an axial direction (Y) of the core wire , the connection structure further comprising: a protective member that covers at least the joining portion of the bus bar and the core wire of the cable . a joining surface joined with a joining portion of the bus bar by resistance welding or ultrasonic welding, and a vertical surface which is formed perpendicular to an axial direction (Y) of the core wire , the connection structure further comprising: a protective member that covers at least the joining portion of the bus bar and the core wire of the cable .