mhurhangee/patent-ind-claim-en huggingface dataset:
A composite end plate for a battery module, characterized in that the composite end plate comprises: a base plate comprising a first surface and a second surface disposed opposite to each other, wherein the base plate is configured to be arranged such that in use the first surface faces a battery ; and a rigid insert , wherein the rigid insert and the base plate are made of different materials, the rigid insert is made of metal material, the rigid insert is arranged at a bottom portion of the base plate , and at least a part of the rigid insert is arranged at the second surface and extends in a length direction (X) of the second surface , the rigid insert and the base plate are separately formed, the rigid insert comprises a first connecting plate and a second connecting plate intersecting with each other, the rigid insert is connected to the base plate through at least the first connecting plate , and the second connecting plate is arranged at the second surface and extends in the length direction (X), the bottom portion of the base plate comprises a first receiving groove and a second receiving groove communicating with each other, the first connecting plate is inserted into the first receiving groove and the first connecting plate is connected to an edge of the second connecting plate away from the bottom portion of the base plate such that the rigid insert is fixed to the base plate , and the second connecting plate is accommodated in the second receiving groove , and a surface of the second connecting plate away from the second receiving groove is flush with the second surface . a base plate comprising a first surface and a second surface disposed opposite to each other, wherein the base plate is configured to be arranged such that in use the first surface faces a battery ; and a rigid insert , wherein the rigid insert and the base plate are made of different materials, the rigid insert is made of metal material, the rigid insert is arranged at a bottom portion of the base plate , and at least a part of the rigid insert is arranged at the second surface and extends in a length direction (X) of the second surface , the rigid insert and the base plate are separately formed, the rigid insert comprises a first connecting plate and a second connecting plate intersecting with each other, the rigid insert is connected to the base plate through at least the first connecting plate , and the second connecting plate is arranged at the second surface and extends in the length direction (X), the bottom portion of the base plate comprises a first receiving groove and a second receiving groove communicating with each other, the first connecting plate is inserted into the first receiving groove and the first connecting plate is connected to an edge of the second connecting plate away from the bottom portion of the base plate such that the rigid insert is fixed to the base plate , and the second connecting plate is accommodated in the second receiving groove , and a surface of the second connecting plate away from the second receiving groove is flush with the second surface .
A system for testing the symmetry of a bidirectional semiconductor device in a circuit connected to an intrabody probe, the system comprising: a signal generator, configured to pass a generated signal, which has two different generated frequencies, through the circuit including a bidirectional semiconductor device; and a processor , configured to: while the generated signal is passed through the circuit , identify a derived frequency, which derives from the generated frequencies, on the circuit , and in response to identifying the derived frequency, generate an output indicating that a property of the bidirectional semiconductor device is asymmetric; wherein the derived frequency is a linear combination of the generated frequencies; a signal generator, configured to pass a generated signal, which has two different generated frequencies, through the circuit including a bidirectional semiconductor device; and a processor , configured to: while the generated signal is passed through the circuit , identify a derived frequency, which derives from the generated frequencies, on the circuit , and in response to identifying the derived frequency, generate an output indicating that a property of the bidirectional semiconductor device is asymmetric; while the generated signal is passed through the circuit , identify a derived frequency, which derives from the generated frequencies, on the circuit , and in response to identifying the derived frequency, generate an output indicating that a property of the bidirectional semiconductor device is asymmetric; wherein the derived frequency is a linear combination of the generated frequencies;
A Battery , comprising: a first Battery cell and a second Battery cell , wherein a pressure relief mechanism of the first Battery cell and a pressure relief mechanism of the second Battery cell are arranged opposite to each other in a first direction (X); a box body accommodating the first Battery cell and the second Battery cell ; and a partition component configured to partition the first Battery cell and the second Battery cell in the first direction (X), wherein the partition component includes a first wall and a second wall arranged opposite to each other, the first wall is provided with a first through hole , the second wall is provided with a second through hole , the first through hole is configured to guide emissions discharged from the pressure relief mechanism of the first Battery cell , the second through hole is configured to guide emissions discharged from the pressure relief mechanism of the second Battery cell , a first guard member is attached to the first wall , the first guard member has a first weak portion arranged opposite to the first through hole , a second guard member is attached to the second wall , and the second guard member has a second weak portion arranged opposite to the second through hole , wherein in a cross section perpendicular to the first direction (X), the area of the first weak portion is greater than that of the first through hole , and the area of the second weak portion is greater than that of the second through hole . a first Battery cell and a second Battery cell , wherein a pressure relief mechanism of the first Battery cell and a pressure relief mechanism of the second Battery cell are arranged opposite to each other in a first direction (X); a box body accommodating the first Battery cell and the second Battery cell ; and a partition component configured to partition the first Battery cell and the second Battery cell in the first direction (X), wherein the partition component includes a first wall and a second wall arranged opposite to each other, the first wall is provided with a first through hole , the second wall is provided with a second through hole , the first through hole is configured to guide emissions discharged from the pressure relief mechanism of the first Battery cell , the second through hole is configured to guide emissions discharged from the pressure relief mechanism of the second Battery cell , a first guard member is attached to the first wall , the first guard member has a first weak portion arranged opposite to the first through hole , a second guard member is attached to the second wall , and the second guard member has a second weak portion arranged opposite to the second through hole , wherein in a cross section perpendicular to the first direction (X), the area of the first weak portion is greater than that of the first through hole , and the area of the second weak portion is greater than that of the second through hole .
An in-vehicle apparatus comprising: a first pulse generating unit configured to generate a first pulse in accordance with a predetermined equipment before a data stream transmitted from the equipment is received, wherein the predetermined equipment is a head unit and the data stream includes audio data; a second pulse generating unit configured to generate a second pulse based on the received data stream; an output unit configured to output a warning sound based on the first pulse or the second pulse; and a switching unit configured to output the first pulse to the output unit before the data stream is received, and output the second pulse to the output unit as of when the first pulse and the second pulse coincide in time. a first pulse generating unit configured to generate a first pulse in accordance with a predetermined equipment before a data stream transmitted from the equipment is received, wherein the predetermined equipment is a head unit and the data stream includes audio data; a second pulse generating unit configured to generate a second pulse based on the received data stream; an output unit configured to output a warning sound based on the first pulse or the second pulse; and a switching unit configured to output the first pulse to the output unit before the data stream is received, and output the second pulse to the output unit as of when the first pulse and the second pulse coincide in time.
SUPPORTING ELEMENT FOR AN OFFSHORE WIND TURBINE, wherein the supporting element comprises: • a base body composed of a circular or polygonal sole plate , a shaft with vertical walls wherein the shaft has a similar cross section as that of the sole plate , with a plurality of vertical cavities extending over the entire circular or polygonal sectioned height of the shaft , and; • a slab disposed on the shaft of the base body , whereon a wind turbine may be supported and fastened, characterized in that the slab which rests on the shaft of the base body and whereon the wind turbine may be supported and fastened has a series of through orifices coinciding with the vertical cavities of the lower supporting base body . • a base body composed of a circular or polygonal sole plate , a shaft with vertical walls wherein the shaft has a similar cross section as that of the sole plate , with a plurality of vertical cavities extending over the entire circular or polygonal sectioned height of the shaft , and; • a slab disposed on the shaft of the base body , whereon a wind turbine may be supported and fastened, characterized in that the slab which rests on the shaft of the base body and whereon the wind turbine may be supported and fastened has a series of through orifices coinciding with the vertical cavities of the lower supporting base body .
An exhaust gas measurement system that has a diluted exhaust gas flow path (L3) through which diluted exhaust gas produced by diluting exhaust gas flows and collects particulate matter in the diluted exhaust gas by a filter (F) provided in the diluted exhaust gas flow path (L3) for measurement, the exhaust gas measurement system comprising: a bypass flow path (L4) that branches from an upstream side of the filter (F) in the diluted exhaust gas flow path (L3) and merges with a downstream side of the filter (F); and a separation flow rate control part that while flowing the diluted exhaust gas through the filter (F), controls a separation flow rate of the diluted exhaust gas flowing through the bypass flow path (L4). a bypass flow path (L4) that branches from an upstream side of the filter (F) in the diluted exhaust gas flow path (L3) and merges with a downstream side of the filter (F); and a separation flow rate control part that while flowing the diluted exhaust gas through the filter (F), controls a separation flow rate of the diluted exhaust gas flowing through the bypass flow path (L4).
A microwave antenna assembly , comprising: a feedline including an inner conductor , an outer conductor and an inner insulator disposed therebetween; a radiating section coupled to the feedline, the radiating section including a dipole antenna and a tubular dielectric loading disposed about the dipole antenna; and a choke disposed around at least a portion of the feedline , the choke including an inner dielectric layer and an outer conductive layer , the inner dielectric layer extending distally past a distal end of the outer conductive layer ; an outer insulator disposed over the outer conductor , the outer insulator extending past a distal end of the choke ; wherein the radiating section further includes a proximal portion and a distal portion and a feed point therebetween; wherein the feed point includes a dielectric material , and wherein a dielectric permittivity of the tubular dielectric loading is higher than a dielectric permittivity of the dielectric material of the feed point , and a dielectric permittivity of the dielectric material of the feed point is higher than a dielectric permittivity of the outer insulator. a feedline including an inner conductor , an outer conductor and an inner insulator disposed therebetween; a radiating section coupled to the feedline, the radiating section including a dipole antenna and a tubular dielectric loading disposed about the dipole antenna; and a choke disposed around at least a portion of the feedline , the choke including an inner dielectric layer and an outer conductive layer , the inner dielectric layer extending distally past a distal end of the outer conductive layer ; an outer insulator disposed over the outer conductor , the outer insulator extending past a distal end of the choke ; wherein the radiating section further includes a proximal portion and a distal portion and a feed point therebetween; wherein the feed point includes a dielectric material , and wherein a dielectric permittivity of the tubular dielectric loading is higher than a dielectric permittivity of the dielectric material of the feed point , and a dielectric permittivity of the dielectric material of the feed point is higher than a dielectric permittivity of the outer insulator.
A composition for a positive electrode of a lithium ion secondary battery, the composition comprising: an active material capable of storing and extracting lithium ion; and an electric conductive material, wherein the active material is lithium iron phosphate, wherein the conductive material includes carbon black and carbon nanotube, wherein the carbon black has an average primary particle diameter of 39 nm or less, wherein the carbon nanotube has an average diameter of 20 nm or less, and wherein, given that contents of the carbon black and the carbon nanotube in the composition are X and Y (unit: % by mass), respectively, the following conditions A and B are satisfied. 1.0 ≤ X + Y ≤ 3.0 0.45 ≤ X / X + Y ≤ 0.55 an active material capable of storing and extracting lithium ion; and an electric conductive material, wherein the active material is lithium iron phosphate, wherein the conductive material includes carbon black and carbon nanotube, wherein the carbon black has an average primary particle diameter of 39 nm or less, wherein the carbon nanotube has an average diameter of 20 nm or less, and wherein, given that contents of the carbon black and the carbon nanotube in the composition are X and Y (unit: % by mass), respectively, the following conditions A and B are satisfied. 1.0 ≤ X + Y ≤ 3.0 0.45 ≤ X / X + Y ≤ 0.55
Rail vehicle car body having at least one container in which at least one rail vehicle component is accommodated, characterized in that the container is arranged in the haunch region of the rail vehicle car body , wherein the haunch region is the transition region between a side wall and a car body roof , and the shaping of the container is adapted to an internal contour of the haunch region and faces the side wall with its rear side and the car body roof with its upper side.
Dishwasher, in particular commercial dishwasher for crockery or utensils, which is in the form of a box-type dishwasher or in the form of a conveyor dishwasher , wherein the dishwasher has at least one controllable, capacitive deionization unit with an inlet for fresh water and an outlet for demineralized water and a control device which is associated at least with the deionization unit , wherein the control device is designed to automatically or selectively automatically adjust, preferably in a regulating manner, at least one parameter which characterizes the operation of the deionization unit , specifically depending on at least one parameter which characterizes the quality of the fresh water at the inlet of the deionization unit and/or depending on at least one parameter which characterizes the quality of the demineralized water at the outlet of the deionization unit , wherein the deionization unit preferably has at least one cell which can be selectively operated in a deionization mode, in a regeneration mode or in a flush mode, characterized by at least of the following: (a) the dishwasher has a manually operable interface by means of which the at least one parameter which characterizes the operation of the deionization unit can be adjusted by the operator of the dishwasher; (b) the control device is designed to adjust the level of an electrical voltage which is supplied to the deionization unit and is used for deionization and/or regeneration and/or the polarity of an electrical voltage which is supplied to the deionization unit depending on at least one parameter which characterizes the quality of the fresh water at the inlet of the deionization unit and/or depending on at least one parameter which characterizes the quality of the demineralized water at the outlet of the deionization unit . (a) the dishwasher has a manually operable interface by means of which the at least one parameter which characterizes the operation of the deionization unit can be adjusted by the operator of the dishwasher; (b) the control device is designed to adjust the level of an electrical voltage which is supplied to the deionization unit and is used for deionization and/or regeneration and/or the polarity of an electrical voltage which is supplied to the deionization unit depending on at least one parameter which characterizes the quality of the fresh water at the inlet of the deionization unit and/or depending on at least one parameter which characterizes the quality of the demineralized water at the outlet of the deionization unit .
A therapeutic or diagnostic agent for use in a method for selectively delivering an effective amount of the agent to a first location of a targeted organ or tissue in a patient, the method comprising the steps of: (a) implanting a biocompatible solid support in the patient at the targeted organ or tissue, wherein the solid support comprises a hydrogel selected from the group consisting of polysaccharide hydrogels, alginate and hyaluronic acid; and is linked to a first binding agent, wherein the first location of the targeted organ or tissue cannot be selectively targeted by chemical or biological targeting agents over other locations of the targeted organ or tissue in the patient; and (b) administering to the patient the therapeutic or diagnostic agent linked to a second binding agent, wherein the first and second binding agents are each independently selected from the group consisting of cyclooctene and tetrazine, such that the first and second binding agents covalently bind to one another upon contact, thereby selectively delivering the effective amount of the therapeutic or diagnostic agent to the first location of the targeted organ or tissue in the patient. (a) implanting a biocompatible solid support in the patient at the targeted organ or tissue, wherein the solid support comprises a hydrogel selected from the group consisting of polysaccharide hydrogels, alginate and hyaluronic acid; and is linked to a first binding agent, wherein the first location of the targeted organ or tissue cannot be selectively targeted by chemical or biological targeting agents over other locations of the targeted organ or tissue in the patient; and (b) administering to the patient the therapeutic or diagnostic agent linked to a second binding agent, wherein the first and second binding agents are each independently selected from the group consisting of cyclooctene and tetrazine, such that the first and second binding agents covalently bind to one another upon contact, thereby selectively delivering the effective amount of the therapeutic or diagnostic agent to the first location of the targeted organ or tissue in the patient.
Handheld cutoff grinder , having: ▪ a cutting disk , which is arranged on a spindle and is rotatable about an axis of rotation , ▪ a motor housing with a drive unit , wherein the spindle is connected to the drive unit via a transmission device , and ▪ a cantilever with an arm cover and a support arm , which is fixed by a first end on the motor housing and on the second end of which the spindle is fixed by means of a bearing element , wherein the arm cover is fastened on the support arm by means of fastening elements , characterized in that a stop element (31, 32; 41) is provided in the arm cover for the spindle , wherein the stop element (31, 32; 41) limits the movement of the spindle in a plane perpendicular to the axis of rotation during operation. ▪ a cutting disk , which is arranged on a spindle and is rotatable about an axis of rotation , ▪ a motor housing with a drive unit , wherein the spindle is connected to the drive unit via a transmission device , and ▪ a cantilever with an arm cover and a support arm , which is fixed by a first end on the motor housing and on the second end of which the spindle is fixed by means of a bearing element , wherein the arm cover is fastened on the support arm by means of fastening elements ,
A basal cell culture medium for culturing mammalian cells comprising the following amino acids at a molar ratio relative to isoleucine (mM/mM) of: L-leucine/L-isoleucine of 1.2-2.2, L-phenylalanine/L-isoleucine of 0.5-0.9, L-tyrosine/L-isoleucine of 1.5-2.7, L-threonine/L-isoleucine of 1.0-1.9, and L-valine/L-isoleucine of 1.0-1.9, wherein the basal cell culture medium has a total amino acid content of about 25 to 150 mM. L-leucine/L-isoleucine of 1.2-2.2, L-phenylalanine/L-isoleucine of 0.5-0.9, L-tyrosine/L-isoleucine of 1.5-2.7, L-threonine/L-isoleucine of 1.0-1.9, and L-valine/L-isoleucine of 1.0-1.9,