mhurhangee/patent-ind-claim-en huggingface dataset:
A battery module , comprising: a plurality of battery cells ; a top plate configured to cover an upper side of the battery cells and to form an upper appearance of the battery module ; a bottom plate disposed opposite to the top plate to cover a lower side of the battery cells and to form a lower appearance of the battery module ; a pair of side plates configured to connect the bottom plate and the top plate and to cover both side surfaces of the battery cells; a bus bar unit comprising two bus bar bodies , two insulation covers , two case covers , and a sensing wire member , wherein each bus bar body are disposed at the front and rear sides of the battery cells and are electrically connected to the electrode leads of the battery cells ; wherein the bus bar unit is connected to the pair of side plates and wherein the case covers of the bus bar unit form the appearance of the battery module at the front side and a rear side of the battery cells; and a pair of heatsinks respectively having a coolant injection portion and a coolant discharge portion protruding out of the battery module and respectively provided at the upper side and the lower side of the battery cells, wherein the pair of heatsinks include a first heatsink disposed between the upper side of the battery cells and the top plate, and a second heatsink disposed between the lower side of the battery cells and the bottom plate. a plurality of battery cells ; a top plate configured to cover an upper side of the battery cells and to form an upper appearance of the battery module ; a bottom plate disposed opposite to the top plate to cover a lower side of the battery cells and to form a lower appearance of the battery module ; a pair of side plates configured to connect the bottom plate and the top plate and to cover both side surfaces of the battery cells; a bus bar unit comprising two bus bar bodies , two insulation covers , two case covers , and a sensing wire member , wherein each bus bar body are disposed at the front and rear sides of the battery cells and are electrically connected to the electrode leads of the battery cells ; wherein the bus bar unit is connected to the pair of side plates and wherein the case covers of the bus bar unit form the appearance of the battery module at the front side and a rear side of the battery cells; and a pair of heatsinks respectively having a coolant injection portion and a coolant discharge portion protruding out of the battery module and respectively provided at the upper side and the lower side of the battery cells, wherein the pair of heatsinks include a first heatsink disposed between the upper side of the battery cells and the top plate, and a second heatsink disposed between the lower side of the battery cells and the bottom plate.
Brassiere with side belt fasteners and a fixing structure for the side belt fasteners, wherein side belt fasteners are provided with a hook fitting and an eye fitting sewn on tape-shaped interlinings are attached between a front fabric and a back fabric of the brassiere via adhesive layers, characterized in that outer edges of the interlinings are set back inward with a predetermined length from outer edges of the front fabric and the back fabric , and the back fabric covering the interlinings is limited to one end portion sides of the interlinings.
A method of treatment of sludge, such as municipal or industrial sludge from a wastewater treatment plant, comprising the steps of: - preheating an incoming sludge with at least one steam fraction, preferably by direct steam injection, to obtain a preheated sludge; - further heating the preheated sludge with a high-temperature steam fraction, preferably by direct steam injection, to obtain a heated sludge; - hydrothermal carbonization (HTC) of the heated sludge to obtain a HTC-treated sludge; - separating a particle-lean fraction from the HTC-treated sludge; - wet oxidation of the particle-lean fraction to obtain a heated particle-lean fraction; - subjecting the heated particle-lean fraction to a first flashing to obtain the high-temperature steam fraction used in the further heating step; - separating a particle-rich fraction from the HTC-treated sludge; - subjecting the particle-rich fraction to flashing to obtain at least one steam fraction that is used in the preheating step and a cooled particle-rich fraction, wherein the temperature of the high-temperature steam fraction is 9-40 °C higher than the temperature of the heated sludge and the temperature of the particle-lean fraction before the wet oxidation step is in the range of ± 5°C when compared to the temperature of the heated sludge. - preheating an incoming sludge with at least one steam fraction, preferably by direct steam injection, to obtain a preheated sludge; - further heating the preheated sludge with a high-temperature steam fraction, preferably by direct steam injection, to obtain a heated sludge; - hydrothermal carbonization (HTC) of the heated sludge to obtain a HTC-treated sludge; - separating a particle-lean fraction from the HTC-treated sludge; - wet oxidation of the particle-lean fraction to obtain a heated particle-lean fraction; - subjecting the heated particle-lean fraction to a first flashing to obtain the high-temperature steam fraction used in the further heating step; - separating a particle-rich fraction from the HTC-treated sludge; - subjecting the particle-rich fraction to flashing to obtain at least one steam fraction that is used in the preheating step and a cooled particle-rich fraction,
A friction lining material having a porous body which is produced by compacting a mixture comprising petroleum coke and a binding agent containing carbon and subsequently pyrolizing it at a temperature between 800 and 1500 °C, the pores of the porous body being filled with a filling material, which is a material containing metal, ceramic or semimetal, characterized in that the porous body is made of more than 50 wt% of petroleum coke.
A vehicle comprising a plurality of walls defining a housing provided with at least one seat assembly , said seat assembly being placed above a compartment defined by a bottom wall and a side wall extending on opposite sides along an edge of said bottom wall , said side wall supporting said seat assembly , said vehicle comprising at least one box housed in said compartment , said box comprising a bottom wall and a side wall extending from at least part of an edge of said bottom wall , on opposite sides thereof, said bottom wall and said side wall delimiting a space configured to house a vehicle cable (C), wherein said seat assembly comprises a backrest and a seat , said seat being carried by said side wall so as to assume a first, closed position in which it allows the passenger to sit and separates said compartment from said housing , and a second, open position in which it allows access to said compartment and said box from said housing , characterized in that said box is a separate element from said housing and can be selectively extracted from said compartment and in that said box further comprises a projection extending from said bottom wall on the same side as said side wall , said space and said projection being sized to allow the housing of said vehicle cable in said space around said projection , said box comprising a bottom wall and a side wall extending from at least part of an edge of said bottom wall , on opposite sides thereof, said bottom wall and said side wall delimiting a space configured to house a vehicle cable (C), wherein said seat assembly comprises a backrest and a seat , said seat being carried by said side wall so as to assume a first, closed position in which it allows the passenger to sit and separates said compartment from said housing , and a second, open position in which it allows access to said compartment and said box from said housing , characterized in that said box is a separate element from said housing and can be selectively extracted from said compartment and in that said box further comprises a projection extending from said bottom wall on the same side as said side wall , said space and said projection being sized to allow the housing of said vehicle cable in said space around said projection ,
A clock duty cycle calibration and frequency multiplier circuit, comprising: a multiplexing module, configured to output a second clock signal (CK2) after inverting an input first clock signal (CKin) based on a first control signal (V1); a calibration module, configured to adjust a duty cycle of the second clock signal (CK2) based on a second control signal (V2), and finally output a third clock signal (CK3) with a 50% duty cycle; a delay module, configured to output a fourth clock signal (CK4) after performing a delay operation on the third clock signal (CK3) based on a third control signal (V3); a detection module, configured to compare the third clock signal (CK3) and the fourth clock signal (CK4) that are input thereto, and output a feedback signal (Va) based on a comparison result; a control module, configured to output the first control signal (V1), the second control signal (V2), and the third control signal (V3) based on the input feedback signal (Va); and a frequency multiplication module, configured to perform a frequency multiplication operation on the third clock signal (CK3), and output a fifth clock signal (CKout); wherein the calibration module comprises a first delay unit, a second delay unit, and a gate circuit, the first delay unit and the second delay unit are connected in parallel and then being connected to the gate circuit, and the first delay unit and the second delay unit are identical adjustable delay units. a multiplexing module, configured to output a second clock signal (CK2) after inverting an input first clock signal (CKin) based on a first control signal (V1); a calibration module, configured to adjust a duty cycle of the second clock signal (CK2) based on a second control signal (V2), and finally output a third clock signal (CK3) with a 50% duty cycle; a delay module, configured to output a fourth clock signal (CK4) after performing a delay operation on the third clock signal (CK3) based on a third control signal (V3); a detection module, configured to compare the third clock signal (CK3) and the fourth clock signal (CK4) that are input thereto, and output a feedback signal (Va) based on a comparison result; a control module, configured to output the first control signal (V1), the second control signal (V2), and the third control signal (V3) based on the input feedback signal (Va); and a frequency multiplication module, configured to perform a frequency multiplication operation on the third clock signal (CK3), and output a fifth clock signal (CKout); wherein the calibration module comprises a first delay unit, a second delay unit, and a gate circuit, the first delay unit and the second delay unit are connected in parallel and then being connected to the gate circuit, and the first delay unit and the second delay unit are identical adjustable delay units.
A composition for use in treatment of cancer, said use comprising the steps of: i) administering to a subject in need thereof a first material being hydroxyapatite in a mixture of micro-sized particles in a size of 1 μm to 10 μm, and nano-sized particles in range of 40 nm to 100 nm, which may optionally comprise at least a second material, wherein the second material or materials are bioresorbable at a higher rate than hydroxyapatite, ii) allowing a certain period of time to pass in order to provide for the first particulate material to be exposed to the body when the second material or materials are present, thereby allowing the second material to be wholly or partly absorbed by the body of the subject, iii) administering to the subject one or more anticancer drugs, wherein, the first material is optionally pre-loaded or soaked with one or more pharmaceutically active compounds, and the second material is optionally pre- loaded or soaked with one or more pharmaceutically active compounds. i) administering to a subject in need thereof a first material being hydroxyapatite in a mixture of micro-sized particles in a size of 1 μm to 10 μm, and nano-sized particles in range of 40 nm to 100 nm, which may optionally comprise at least a second material, wherein the second material or materials are bioresorbable at a higher rate than hydroxyapatite, ii) allowing a certain period of time to pass in order to provide for the first particulate material to be exposed to the body when the second material or materials are present, thereby allowing the second material to be wholly or partly absorbed by the body of the subject, iii) administering to the subject one or more anticancer drugs,
An object surface evaluation method for evaluating an object surface, characterized by the steps of: creating a visible area map by setting a parameter representing a surface roughness of the object surface as a first axis, setting a normal direction change rate of a shape of the object surface as a second axis, and relating a minimum normal direction change rate visible to a person with the parameter representing the surface roughness of the object surface, and displaying the relationship between the parameter representing the surface roughness of the object surface and a maximum value of the normal direction change rate of the object surface on the visible area map. creating a visible area map by setting a parameter representing a surface roughness of the object surface as a first axis, setting a normal direction change rate of a shape of the object surface as a second axis, and relating a minimum normal direction change rate visible to a person with the parameter representing the surface roughness of the object surface, and displaying the relationship between the parameter representing the surface roughness of the object surface and a maximum value of the normal direction change rate of the object surface on the visible area map.
A cable clamping bracket configured to detachably mount to a cable clamping area in a telecommunications system the cable clamping bracket including: a base plate configured to mount to the cable clamping area; and a cable holding plate extending from the base plate and including a plurality of cable clamping structures , wherein the cable holding plate includes a main plate portion and opposite side portions arranged to be generally perpendicular to the main plate portion and generally parallel to each other, wherein each of the cable clamping structures includes: a cable securing device configured to secure the cable with a tie wrap ; and a cable alignment device configured to align the cable in a cable extension direction; wherein each cable clamping structure is configured to retain a cable thereto; and wherein the cable alignment device includes grooves provided in the opposite side portions and configured to at least partially receive the cable. a base plate configured to mount to the cable clamping area; and a cable holding plate extending from the base plate and including a plurality of cable clamping structures , wherein the cable holding plate includes a main plate portion and opposite side portions arranged to be generally perpendicular to the main plate portion and generally parallel to each other, wherein each of the cable clamping structures includes: a cable securing device configured to secure the cable with a tie wrap ; and a cable alignment device configured to align the cable in a cable extension direction; wherein each cable clamping structure is configured to retain a cable thereto; and wherein the cable alignment device includes grooves provided in the opposite side portions and configured to at least partially receive the cable. a cable securing device configured to secure the cable with a tie wrap ; and a cable alignment device configured to align the cable in a cable extension direction; wherein each cable clamping structure is configured to retain a cable thereto; and wherein the cable alignment device includes grooves provided in the opposite side portions and configured to at least partially receive the cable.
An apparatus, comprising: a catheter that comprises a tube having proximal and distal ends; an ablation instrument near the distal end of the catheter , wherein the ablation instrument may be operated in a low-power mode to stimulate selected nervous tissue or operated in a high-power mode to destroy the selected nervous tissue; a magnetic sensor near the distal end of the catheter , wherein the magnetic sensor is configured to sense magnetic fields produced as a result of stimulation by the ablation instrument ; a control unit connectable to the proximal end of the catheter and containing equipment for steering the catheter and electronics for actuating the ablation instrument and for receiving and analyzing signals from the magnetic sensor ; wherein the control unit is configured to determine whether a change in the magnetic sensor signal occurs that is time-correlated with the delivery of low-power stimulation provided by the ablation instrument operating in the low power mode to stimulate the selected nervous tissue; wherein, if no time-correlated change in the magnetic sensor signal occurs, the location and/or the orientation of the ablation instrument is adjusted; if a time-correlated change in the magnetic sensor signal occurs, the ablation instrument is switched to deliver high-power stimulation to destroy the selected nervous tissue. a catheter that comprises a tube having proximal and distal ends; an ablation instrument near the distal end of the catheter , wherein the ablation instrument may be operated in a low-power mode to stimulate selected nervous tissue or operated in a high-power mode to destroy the selected nervous tissue; a magnetic sensor near the distal end of the catheter , wherein the magnetic sensor is configured to sense magnetic fields produced as a result of stimulation by the ablation instrument ; a control unit connectable to the proximal end of the catheter and containing equipment for steering the catheter and electronics for actuating the ablation instrument and for receiving and analyzing signals from the magnetic sensor ; wherein the control unit is configured to determine whether a change in the magnetic sensor signal occurs that is time-correlated with the delivery of low-power stimulation provided by the ablation instrument operating in the low power mode to stimulate the selected nervous tissue; wherein, if no time-correlated change in the magnetic sensor signal occurs, the location and/or the orientation of the ablation instrument is adjusted; if a time-correlated change in the magnetic sensor signal occurs, the ablation instrument is switched to deliver high-power stimulation to destroy the selected nervous tissue.
A method of manufacturing a printed wiring board , comprising: a step of forming a copper foil pattern on a first main surface of a base material ; a step of forming a solder resist by uniformly spraying a first thermosetting ink which comprises a photosensitive component on the entire surface of the first main surface on which the copper foil pattern is formed; a step of temporary heating and drying the first thermosetting ink to be in a semi-cured state; subsequently laminating an exposure film on the semi-cured first thermosetting ink, wherein the exposure film has a black and a transparent portion, irradiating the laminated film with ultraviolet rays and removing the semi-cured first thermosetting ink that was covered by the black portion during a development step, wherein the black portion corresponds to a portion that is to be soldered, subsequently a step of printing an outline character forming layer by using a second thermosetting ink on a region other than the portion that is to be soldered and a character forming portion, the character forming portion being a portion on which the characters are formed, and subsequently a step of finally heating and drying the first thermosetting ink and the second thermosetting ink to be cured at a temperature higher than the temporary heating and drying. a step of forming a copper foil pattern on a first main surface of a base material ; a step of forming a solder resist by uniformly spraying a first thermosetting ink which comprises a photosensitive component on the entire surface of the first main surface on which the copper foil pattern is formed; a step of temporary heating and drying the first thermosetting ink to be in a semi-cured state; subsequently laminating an exposure film on the semi-cured first thermosetting ink, wherein the exposure film has a black and a transparent portion, irradiating the laminated film with ultraviolet rays and removing the semi-cured first thermosetting ink that was covered by the black portion during a development step, wherein the black portion corresponds to a portion that is to be soldered, subsequently a step of printing an outline character forming layer by using a second thermosetting ink on a region other than the portion that is to be soldered and a character forming portion, the character forming portion being a portion on which the characters are formed, and subsequently a step of finally heating and drying the first thermosetting ink and the second thermosetting ink to be cured at a temperature higher than the temporary heating and drying.