mhurhangee/patent-ind-claim-en huggingface dataset:
A capacitance detection circuit for detecting capacitances of N capacitors to be detected, the N being greater than or equal to 2, wherein the capacitance detection circuit comprises: at least N-1 first front end circuits for converting capacitance signals of the capacitors to be detected into first voltage signals and performing differencing on the first voltage signals, at least one second front end circuit for converting capacitance signals of capacitors to be detected into second voltage signals and performing summing on the second voltage signals, and a processing circuit, wherein each of the at least N-1 first front end circuits comprises a first input end and a second input end, and each of the at least one second front end circuit comprises a third input end and a fourth input end; a first input end and a second input end of each of at least N-2 first front end circuits are respectively connected to two different capacitors to be detected; a first input end of a first front end circuit except the at least N-2 first front end circuits is simultaneously connected to a capacitor to be detected and a third input end or a fourth input end of a second front end circuit, a second input end of the first front end circuit except the at least N-2 first front end circuits is simultaneously connected to a capacitor to be detected and a first input end of a first front end circuit of the at least N-2 first front end circuits, and the capacitors to be detected to which the two input ends of the first front end circuit except the at least N-2 first front end circuits are connected are different capacitors to be detected; a third input end and a fourth input end of each of the at least one second front end circuit are connected to two different capacitors to be detected, respectively; each of the at least N-1 first front end circuits outputs a differential signal of voltages corresponding to two connected capacitors to be detected; each of the at least one second front end circuit outputs a summation signal of voltages corresponding to two connected capacitors to be detected; and the processing circuit is connected to output ends of each of the first front end circuits and each of the second front end circuits, and is configured to determine, according to the differential signal output by each of the first front end circuits and the summation signal output by each of the second front end circuits, a capacitance value of each of the N capacitors to be detected.
A closure device for closing a port site incision, the closure device comprising: an access device including a body defining a cutout and a head defining a slot , the body having a proximal portion and a distal portion and defining a channel that extends between the proximal and distal portions , the head being supported on the proximal portion of the body , wherein the head of the access device has a first diameter and the body of the access device is cylindrical having a second diameter, the first diameter being greater than the second diameter; and a suture needle including a shaft and a curved portion , the shaft having a proximal portion and a distal portion , the curved portion extending from the distal portion of the shaft and having a tip configured to penetrate tissue, the tip extending in a direction towards the head of the access device , wherein the proximal portion of the shaft extends through and is movable within the slot in the head to move the curved portion of the suture needle from an inactive position located within the channel to an active position positioned located externally of the channel, wherein the cutout in the body of the access device defines a vertical slot that is dimensioned to facilitate passage of the curved portion of the suture needle from within the channel into a body cavity. an access device including a body defining a cutout and a head defining a slot , the body having a proximal portion and a distal portion and defining a channel that extends between the proximal and distal portions , the head being supported on the proximal portion of the body , wherein the head of the access device has a first diameter and the body of the access device is cylindrical having a second diameter, the first diameter being greater than the second diameter; and a suture needle including a shaft and a curved portion , the shaft having a proximal portion and a distal portion , the curved portion extending from the distal portion of the shaft and having a tip configured to penetrate tissue, the tip extending in a direction towards the head of the access device , wherein the proximal portion of the shaft extends through and is movable within the slot in the head to move the curved portion of the suture needle from an inactive position located within the channel to an active position positioned located externally of the channel, wherein the cutout in the body of the access device defines a vertical slot that is dimensioned to facilitate passage of the curved portion of the suture needle from within the channel into a body cavity.
Induction heating apparatus, in particular induction hob apparatus, with five independent induction heating groups (20-20f, 22-22f, 24-24f, 26-26f, 28-28f, 52c-52f, 54e-54f, 56f) and an electronics unit (16-16f) that is provided to supply the induction heating groups (20-20f, 22-22f, 24-24f, 26-26f, 28-28f, 52c-52f, 54e-54f, 56f), wherein the electronics unit (16-16f) is provided in order to supply the induction heating groups (20-20f, 22-22f, 24-24f, 26-26f, 28-28f, 52c-52f, 54e-54f, 56f) from at most two different energy sources (30-30f, 40-40f), wherein the energy sources (30-30f, 40-40f) are each formed by a phase of a multiphase home connection and the electronics unit (16-16f) is provided in order to supply at least two of the induction heating groups (20-20f, 22-22f, 24-24f, 26-26f, 28-28f, 52c-52f, 54e-54f, 56f) from different energy sources of the energy sources (30-30f, 40-40f) in at least one operating mode, wherein the electronics unit (16-16f) has two heating frequency modules (32-32f, 42-42f) that are provided in order to draw energy from different energy sources of the energy sources (30-30f, 40-40f) and to supply some of the induction heating groups (20-20f, 22-22f, 24-24f, 26-26f, 28-28f, 52c-52f, 54e-54f, 56f) in each case, and wherein a first of the heating frequency modules (32-32f, 42c, 42e, 42f) is provided in order to draw energy from a first of the energy sources and to use this to supply the first, second and third induction heating groups when a heating output is requested therefor, wherein the heating frequency module has two heating frequency units that are each formed by two switching elements that are connected in series and embodied as IGBTs, wherein a high-frequency alternating current can be tapped between the switching elements, wherein the first heating frequency module has a switching unit that is provided in order to optionally connect any of the two of the three induction heating groups simultaneously to one of the heating frequency units in each case, or to connect any one of the three induction heating groups simultaneously to both heating frequency units, in order to operate them in a boost mode.
A laundry treating apparatus comprising: a washing tub in which washing water is received; a drum configured to rotate about a rotation axis (O) extending in a front-rear direction within the washing tub ; and a lifter (61a, 61b, 62a, 62b, 63a, and 63b) disposed on an inner circumferential surface of the drum and configured to revolve around the rotation axis (O) when the drum rotates, wherein the lifter (61a, 61b, 62a, 62b, 63a, and 63b) comprises: a lifter frame installed on the inner circumferential surface of the drum ; and a frame cover configured to be coupled to the lifter frame and protrude radially inward from the inner circumferential surface of the drum , wherein a seating groove is formed in the lifter frame along a circumference of the lifter frame that is coupled to the inner circumferential surface of the drum , wherein the frame cover is coupled to the lifter frame with a lower end of the frame cover mounted to the seating groove , and characterized in that a spacing rib configured to space an inner surface of the lower end of the frame cover mounted to the seating groove from an outer surface of the lifter frame is protrudingly formed in the seating groove . a washing tub in which washing water is received; a drum configured to rotate about a rotation axis (O) extending in a front-rear direction within the washing tub ; and a lifter (61a, 61b, 62a, 62b, 63a, and 63b) disposed on an inner circumferential surface of the drum and configured to revolve around the rotation axis (O) when the drum rotates, a lifter frame installed on the inner circumferential surface of the drum ; and a frame cover configured to be coupled to the lifter frame and protrude radially inward from the inner circumferential surface of the drum , wherein a seating groove is formed in the lifter frame along a circumference of the lifter frame that is coupled to the inner circumferential surface of the drum , wherein the frame cover is coupled to the lifter frame with a lower end of the frame cover mounted to the seating groove , and characterized in that a spacing rib configured to space an inner surface of the lower end of the frame cover mounted to the seating groove from an outer surface of the lifter frame is protrudingly formed in the seating groove . wherein a seating groove is formed in the lifter frame along a circumference of the lifter frame that is coupled to the inner circumferential surface of the drum , wherein the frame cover is coupled to the lifter frame with a lower end of the frame cover mounted to the seating groove , and characterized in that a spacing rib configured to space an inner surface of the lower end of the frame cover mounted to the seating groove from an outer surface of the lifter frame is protrudingly formed in the seating groove .
A wireless communication apparatus, comprising: an oscillator comprising a coil assembly exposed to an outside of the wireless communication apparatus , a variable capacitor , and a negative resistor ; and a phase locking circuit connected to the coil assembly and the negative resistor , and configured to generate a control signal to lock an oscillation frequency of the oscillator based on an oscillation signal generated by the oscillator , and provide the generated control signal to the variable capacitor . an oscillator comprising a coil assembly exposed to an outside of the wireless communication apparatus , a variable capacitor , and a negative resistor ; and a coil assembly exposed to an outside of the wireless communication apparatus , a variable capacitor , and a negative resistor ; and a phase locking circuit connected to the coil assembly and the negative resistor , and configured to generate a control signal to lock an oscillation frequency of the oscillator based on an oscillation signal generated by the oscillator , and provide the generated control signal to the variable capacitor .
An odor deterrent, characterized in that it consists of a hollow closed housing (A) having a cavity filled with a porous carrier (B) containing an odorous component (C), wherein - the housing (A) is made of a biodegradable waterproof polymeric material containing at least 30 wt. % of a component selected from starch ester, polyhydroxybutyrate having the weight average molar mass of at least 20 000 g/mol, polylactide having the weight average molar mass of at least 10 000 g/mol, polycaprolactone having the weight average molar mass of at least 30 000 g/mol, polyurethane obtained by reacting a polyester or polyether-ester polyol and an aliphatic diisocyanate, and mixtures thereof, and up to 70 wt. % of an inert inorganic filler or a cellulosic filler, and optionally a plastifier, - the carrier (B) of the odorous component is made of a porous polymeric material containing at least 70 wt. % of a component selected from starch, starch ester, cellulose, polyurethane obtained by reacting a polyester or polyether-ester polyol and an aliphatic diisocyanate, and mixtures thereof, and up to 30 wt. % of an inert inorganic filler or a cellulosic filler, and optionally a plastifier, and - the odorous component (C) is selected from the group consisting of monocarboxylic acids having 4 to 6 carbons in the chain, a mixture of monocarboxylic acids having 4 to 6 carbon atoms in the chain, esters of said monocarboxylic acids, anhydrides of said monocarboxylic acids. - the housing (A) is made of a biodegradable waterproof polymeric material containing at least 30 wt. % of a component selected from starch ester, polyhydroxybutyrate having the weight average molar mass of at least 20 000 g/mol, polylactide having the weight average molar mass of at least 10 000 g/mol, polycaprolactone having the weight average molar mass of at least 30 000 g/mol, polyurethane obtained by reacting a polyester or polyether-ester polyol and an aliphatic diisocyanate, and mixtures thereof, and up to 70 wt. % of an inert inorganic filler or a cellulosic filler, and optionally a plastifier, - the carrier (B) of the odorous component is made of a porous polymeric material containing at least 70 wt. % of a component selected from starch, starch ester, cellulose, polyurethane obtained by reacting a polyester or polyether-ester polyol and an aliphatic diisocyanate, and mixtures thereof, and up to 30 wt. % of an inert inorganic filler or a cellulosic filler, and optionally a plastifier, and - the odorous component (C) is selected from the group consisting of monocarboxylic acids having 4 to 6 carbons in the chain, a mixture of monocarboxylic acids having 4 to 6 carbon atoms in the chain, esters of said monocarboxylic acids, anhydrides of said monocarboxylic acids.
A laser scanning control device for controlling laser scanning performed by a laser scanning apparatus having a light reception unit , and a variable optical attenuator , the control device comprising: a laser scanning apparatus controller which executes first laser scanning and second laser scanning, the first laser scanning being performed under conditions in which the light reception unit is saturated by light reflected back from a reflector for surveying, the second laser scanning being performed under conditions in which saturation of the light reception unit does not occur; a reflection prism distance acquisition unit which acquires a distance to the reflector for surveying, based on the first laser scanning; a variable optical attenuator controller which adjusts an intensity of light to be received by the light reception unit , based on the distance to the reflector for surveying, in the second laser scanning, wherein the variable optical attenuator controller adjusts the intensity by adjusting an attenuation amount of the variable optical attenuator in accordance with the distance; and a reflection prism detector which detects light that is reflected back from a reflection prism that is the reflector for surveying, wherein, in the second laser scanning, the reflection prism detector detects light as the light that is reflected back from the reflection prism, on the condition that output from the light reception unit that receives the light is equal to or greater than a predetermined threshold, and the predetermined threshold is a value in a range of 5 to 50 % of a maximum value of output of the light reception unit in the second laser scanning. a laser scanning apparatus controller which executes first laser scanning and second laser scanning, the first laser scanning being performed under conditions in which the light reception unit is saturated by light reflected back from a reflector for surveying, the second laser scanning being performed under conditions in which saturation of the light reception unit does not occur; a reflection prism distance acquisition unit which acquires a distance to the reflector for surveying, based on the first laser scanning; a variable optical attenuator controller which adjusts an intensity of light to be received by the light reception unit , based on the distance to the reflector for surveying, in the second laser scanning, wherein the variable optical attenuator controller adjusts the intensity by adjusting an attenuation amount of the variable optical attenuator in accordance with the distance; and a reflection prism detector which detects light that is reflected back from a reflection prism that is the reflector for surveying, wherein, in the second laser scanning, the reflection prism detector detects light as the light that is reflected back from the reflection prism, on the condition that output from the light reception unit that receives the light is equal to or greater than a predetermined threshold, and the predetermined threshold is a value in a range of 5 to 50 % of a maximum value of output of the light reception unit in the second laser scanning.
A method of installing a seat between a first surface and a second surface in a pressurized system, the method comprising: press-fitting the seat into a housing connectable to the first surface; sliding a threaded nut over the housing; crimping an end of the nut to the housing to provide a rotatably decoupled connection between the housing and the nut that allows the nut to freely rotate about the seat; and securing the nut to the second surface, wherein due to the rotatably decoupled connection securement of the nut creates a pressure tight seal between the first and second surfaces via rotation of the nut without applying torque to the seat. press-fitting the seat into a housing connectable to the first surface; sliding a threaded nut over the housing; crimping an end of the nut to the housing to provide a rotatably decoupled connection between the housing and the nut that allows the nut to freely rotate about the seat; and securing the nut to the second surface, wherein due to the rotatably decoupled connection securement of the nut creates a pressure tight seal between the first and second surfaces via rotation of the nut without applying torque to the seat.
A method for producing a light-emitting display device , comprising: (i) forming a film of a light-transmissive resin material on a substrate having a single-layered structure over which a reflective metal and a semi-transparent member are disposed in at least one of a plurality of pixel regions corresponding to a red (R), green (G), and blue (B) such that the light-transmissive resin material is in the optical path between the reflective metal and the semi-transparent member , characterized by : (ii) curing part of the film of the light-transmissive resin material to form a light-transmissive resin layer, the part being in a region including the at least one pixel region, and (iii) developing the light-transmissive resin layer after the curing, to form an optical path length-adjusting layer . (i) forming a film of a light-transmissive resin material on a substrate having a single-layered structure over which a reflective metal and a semi-transparent member are disposed in at least one of a plurality of pixel regions corresponding to a red (R), green (G), and blue (B) such that the light-transmissive resin material is in the optical path between the reflective metal and the semi-transparent member , characterized by : (ii) curing part of the film of the light-transmissive resin material to form a light-transmissive resin layer, the part being in a region including the at least one pixel region, and (iii) developing the light-transmissive resin layer after the curing, to form an optical path length-adjusting layer .
An alpha-beta titanium based-alloy comprising 0.001-1.0 wt.% in total of at least one lanthanide series element, wherein the at least one lanthanide series element is Gd, wherein the alloy further comprises additional amounts of at least one of aluminum (Al), zirconium (Zr), tin (Sn), oxygen (O), molybdenum (Mo), vanadium (V), niobium (Nb), iron (Fe), and chromium (Cr), wherein the amounts are defined based on their aluminum equivalent and molybdenum equivalent in which the aluminum equivalent (Al-eq) is between 0 to 7.5% and the molybdenum equivalent (Mo-eq) is between 2.7 to 47.5%, and in which Al-eq and Mo-eq are defined as follows: Al-eq=Al%+Zr%/6+Sn%/3+10 ∗ (O%); Mo-eq= Mo%+0.67 ∗ V%+0.33 ∗ Nb%+2.9 ∗ Fe%+1.6 ∗ Cr%, with the balance being titanium and impurities. wherein the at least one lanthanide series element is Gd, wherein the alloy further comprises additional amounts of at least one of aluminum (Al), zirconium (Zr), tin (Sn), oxygen (O), molybdenum (Mo), vanadium (V), niobium (Nb), iron (Fe), and chromium (Cr), wherein the amounts are defined based on their aluminum equivalent and molybdenum equivalent in which the aluminum equivalent (Al-eq) is between 0 to 7.5% and the molybdenum equivalent (Mo-eq) is between 2.7 to 47.5%, and in which Al-eq and Mo-eq are defined as follows: Al-eq=Al%+Zr%/6+Sn%/3+10 ∗ (O%); Mo-eq= Mo%+0.67 ∗ V%+0.33 ∗ Nb%+2.9 ∗ Fe%+1.6 ∗ Cr%, with the balance being titanium and impurities.
A battery pack comprising: a battery module assembly comprising a plurality of battery modules including a plurality of battery cells ; a pack tray on which the battery module assembly is accommodated; and a tray bar arranged on at least one side edge of the pack tray , wherein the tray bar comprises a plurality of tray bars provided to face battery modules at both outermost sides of the battery module assembly , wherein the battery pack further comprises a plurality of tolerance compensation members provided between the battery modules at both outermost sides of the battery module assembly and the plurality of tray bars , wherein each of the plurality of tolerance compensation members comprises: a shim part arranged in contact with the battery modules at both outermost sides of the battery module assembly and the plurality of tray bars ; and an accommodating part bent from an upper end of the shim part and accommodated on an upper side of the plurality of tray bars . a battery module assembly comprising a plurality of battery modules including a plurality of battery cells ; a pack tray on which the battery module assembly is accommodated; and a tray bar arranged on at least one side edge of the pack tray , wherein the tray bar comprises a plurality of tray bars provided to face battery modules at both outermost sides of the battery module assembly , wherein the battery pack further comprises a plurality of tolerance compensation members provided between the battery modules at both outermost sides of the battery module assembly and the plurality of tray bars , wherein each of the plurality of tolerance compensation members comprises: a shim part arranged in contact with the battery modules at both outermost sides of the battery module assembly and the plurality of tray bars ; and an accommodating part bent from an upper end of the shim part and accommodated on an upper side of the plurality of tray bars . a shim part arranged in contact with the battery modules at both outermost sides of the battery module assembly and the plurality of tray bars ; and an accommodating part bent from an upper end of the shim part and accommodated on an upper side of the plurality of tray bars .
A housing for an electronic device, wherein the housing encloses an interior and comprises housing parts and a bottom in the form of a cooling body, wherein a plurality of shaped parts in the interior of the housing electrically and thermally delimit, together with the bottom , a plurality of spatial regions with regard to one another and to the remainder of the interior , and wherein each of the shaped parts covers a structural unit of the electronic device, characterized in that at least one shaped part is a folded stamped part and has a hood-like form, and in that at least one shaped part is manufactured in a plastic deep drawing process as a deep-drawn part and has a hood-like form.
A composition comprising a quinochalcone compound, or a salt thereof, wherein the quinochalcone compound has the structure of formula I: