mhurhangee/patent-ind-claim-en huggingface dataset:
A brushless slotless electric motor comprising: a stator that includes a stator core and a plurality of coils (31-33), the plurality of coils being disposed at an inside of the stator core ; and a rotor that includes a shaft , the rotor being rotated around the shaft with respect to the stator , wherein the plurality of coils (31-33) are adjacent to each other in a rotation direction of the rotor so as not to lap mutually, wherein a first requirement is satisfied, the first requirement being Lf < Lc where Lf is a length of the stator core in an axial direction and Lc is a length of the coil in the axial direction, wherein the plurality of coils includes coils that lineally extend on both of an inner diameter side (C IN ) and an outer diameter side (C out ) of the coils along the axial direction; and a coil end that is positioned at an end portion in the axial direction; a second requirement is satisfied, the second requirement being Lm < Lf where Lm is a length of a permanent magnet in the axial direction, the permanent magnet being included in the rotor , and a third requirement is satisfied, the third requirement being Lf ≥ Lcs wherein Lcs is the length of a range in which the coils linearly extend on both of the inner diameter side (C IN ) and the outer diameter side (C out ) along the axial direction, the brushless slotless electric motor further comprising a medium pathway configured such that a medium can pass through the medium pathway, the medium including a fluid and an electric wire or light, and being suitable for being used for actualizing a function of an application object of the electric motor, wherein the medium pathway is disposed between the adjacent coils (31-33), and wherein each coil is wound so as to have a rectangular shape in planar view, wherein each of the coils is formed by a rectangular wire having a rectangular cross-section wherein both of the starting end and trailing end of the rectangular wire are positioned at the outside of the coil. a stator that includes a stator core and a plurality of coils (31-33), the plurality of coils being disposed at an inside of the stator core ; and a rotor that includes a shaft , the rotor being rotated around the shaft with respect to the stator , wherein the plurality of coils (31-33) are adjacent to each other in a rotation direction of the rotor so as not to lap mutually, wherein a first requirement is satisfied, the first requirement being Lf < Lc where Lf is a length of the stator core in an axial direction and Lc is a length of the coil in the axial direction,
A compressor device comprising a cylinder comprising a pump chamber to compress the air with a back-and-forth motion of a piston , and a surge chamber to receive the compressed air from the pump chamber via an exhaust valve ; wherein said surge chamber comprises an outlet to send the compressed air from the surge chamber to a compressed air discharge port , a manometer port to connect with a manometer to measure the pressure of the compressed air, and a relief valve connecting port to connect with the relief valve to release overpressure; characterized in that a volume (Q2) of said surge chamber is set in a range of 1.0 to 3.0 times a stroke volume of the piston in said pump chamber . a pump chamber to compress the air with a back-and-forth motion of a piston , and a surge chamber to receive the compressed air from the pump chamber via an exhaust valve ; wherein said surge chamber comprises an outlet to send the compressed air from the surge chamber to a compressed air discharge port , a manometer port to connect with a manometer to measure the pressure of the compressed air, and a relief valve connecting port to connect with the relief valve to release overpressure; characterized in that a volume (Q2) of said surge chamber is set in a range of 1.0 to 3.0 times a stroke volume of the piston in said pump chamber . said surge chamber comprises an outlet to send the compressed air from the surge chamber to a compressed air discharge port , a manometer port to connect with a manometer to measure the pressure of the compressed air, and a relief valve connecting port to connect with the relief valve to release overpressure; an outlet to send the compressed air from the surge chamber to a compressed air discharge port , a manometer port to connect with a manometer to measure the pressure of the compressed air, and a relief valve connecting port to connect with the relief valve to release overpressure; characterized in that a volume (Q2) of said surge chamber is set in a range of 1.0 to 3.0 times a stroke volume of the piston in said pump chamber .
An α-hemolysin (α-HL) variant comprising a substitution at a position corresponding to position 12 or 17 of SEQ ID NO: 3 , wherein the substitution comprises one or more positive charges.
A method for producing a ceramic powder, comprising: (i) heating at a temperature of 1500 to 2000°C a raw ceramic powder in an atmosphere in which a N 2 gas purified by a gas purification device flows, (ii) heating at a temperature of 1500 to 2000°C a raw ceramic powder in a nitrogen atmosphere under low oxygen partial pressure of 101.3 × 10 -29 kPa (1 × 10 -29 atm) or less, or (iii) treating a raw ceramic powder by thermal plasma using Ar gas and H 2 gas as a plasma gas, wherein: the raw ceramic powder contains at least one of a nitride and a carbonitride of one or more elements selected from the group consisting of a group 4 element, a group 5 element and a group 6 element as a major component, the ceramic powder contains at least one of a nitride and a carbonitride of a metal element as a major component, the metal element is one or more elements selected from the group consisting of a group 4 element, a group 5 element and a group 6 element, and the ceramic powder has an average particle size of 5 μm or less and an oxygen content of 0.1% by mass or less. (i) heating at a temperature of 1500 to 2000°C a raw ceramic powder in an atmosphere in which a N 2 gas purified by a gas purification device flows, (ii) heating at a temperature of 1500 to 2000°C a raw ceramic powder in a nitrogen atmosphere under low oxygen partial pressure of 101.3 × 10 -29 kPa (1 × 10 -29 atm) or less, or (iii) treating a raw ceramic powder by thermal plasma using Ar gas and H 2 gas as a plasma gas, wherein: the raw ceramic powder contains at least one of a nitride and a carbonitride of one or more elements selected from the group consisting of a group 4 element, a group 5 element and a group 6 element as a major component, the ceramic powder contains at least one of a nitride and a carbonitride of a metal element as a major component, the metal element is one or more elements selected from the group consisting of a group 4 element, a group 5 element and a group 6 element, and the ceramic powder has an average particle size of 5 μm or less and an oxygen content of 0.1% by mass or less. the raw ceramic powder contains at least one of a nitride and a carbonitride of one or more elements selected from the group consisting of a group 4 element, a group 5 element and a group 6 element as a major component, the ceramic powder contains at least one of a nitride and a carbonitride of a metal element as a major component, the metal element is one or more elements selected from the group consisting of a group 4 element, a group 5 element and a group 6 element, and the ceramic powder has an average particle size of 5 μm or less and an oxygen content of 0.1% by mass or less.
A filter arrangement for a liquid-conducting system, preferably a cooling circuit of an engine , comprising a filter housing with an inlet and an outlet for liquid flowing along a flow path through the filter housing , furthermore comprising a filter which is arranged in the filter housing in the flow path of the liquid for filtering dirt particles out of the liquid, wherein a collecting chamber which is arranged upstream of the filter and into which dirt particles which are filtered out by the filter drop because of gravity when liquid no longer flows through the filter housing , wherein the collecting chamber forms a dead space, and therefore dirt particles located in the collecting chamber are not entrained by liquid flowing through the filter housing , wherein the collecting chamber is separated from the flow path of the liquid by means of a covering (52, 52', 52"), wherein a) the covering is designed as a sieve covering having a multiplicity of sieve openings for the dirt particles and the walls bounding the sieve openings extend tubularly beyond the covering on a lower side of the covering facing the collecting chamber ; or b) wherein the covering is designed as a lattice covering having a multiplicity of lattice slots for the dirt particles , wherein the side walls longitudinally bounding the lattice slots extend beyond the covering on a lower side of the covering facing the collecting chamber . a) the covering is designed as a sieve covering having a multiplicity of sieve openings for the dirt particles and the walls bounding the sieve openings extend tubularly beyond the covering on a lower side of the covering facing the collecting chamber ; or b) wherein the covering is designed as a lattice covering having a multiplicity of lattice slots for the dirt particles , wherein the side walls longitudinally bounding the lattice slots extend beyond the covering on a lower side of the covering facing the collecting chamber .
Final drive for a motor vehicle, having a first input shaft , a second input shaft , a first output shaft and a second output shaft , wherein the first input shaft is permanently coupled to the first output shaft by means of a first ring gear transmission and the second input shaft is permanently coupled to the second output shaft by means of a second ring gear transmission , the first input shaft and the second input shaft are arranged coaxially to each other and the first output shaft and the second output shaft extend in opposite directions from the respective ring gear transmission , wherein an axial plane includes the axes of rotation of the input shafts and a plane perpendicular to the axial plane encloses an angle of at least 75° and at most 90° with each of the axes of rotation of the output shafts , and wherein a first ring gear of the first ring gear transmission , which first ring gear is rigidly connected to the first output shaft , and a second ring gear of the second ring gear transmission , which second ring gear is rigidly connected to the second output shaft , are each mounted by means of a first radial bearing and a second radial bearing in a transmission housing of the final drive , wherein the radial bearings are arranged in a tandem arrangement or in an X-arrangement with respect to one another or are configured as fixed bearing and as floating bearing, and that a bearing element is arranged in the transmission housing , which bearing element has a first bearing projection and a second bearing projection , wherein the ring gear of the first ring gear transmission is mounted on the first bearing projection and the ring gear of the second ring gear transmission is mounted on the second bearing projection , characterised in that the first radial bearing for mounting the respective ring gear is arranged on the first bearing projection or the second bearing projection and the second radial bearing is arranged on the respective same bearing projection , wherein the first radial bearing has a first internal diameter and a first external diameter and the second radial bearing has a second internal diameter and a second external diameter, the first internal diameter being greater than the second internal diameter and the first external diameter being greater than the second external diameter.
A device for directing radiation emitted by a laser source through a hand piece to an oral treatment area, the device comprising: a disposable tube attachable to an outlet of the hand piece; and a lens for modifying at least one of a profile or a direction of radiation emitted from the tube , characterised in that the lens is disposed completely within the tube . a disposable tube attachable to an outlet of the hand piece; and a lens for modifying at least one of a profile or a direction of radiation emitted from the tube , characterised in that the lens is disposed completely within the tube .
An air conditioning device comprising: a gas detection processing unit calculating a concentration value (N) of a detection target gas in an air conditioning target space (S1) by using a lidar ; a blowing control unit controlling a blowing direction (Φ β , Θ B ) with respect to the air conditioning target space (S1) by using the concentration value (N); and a wind measurement processing unit calculating a wind direction value (Φ L , Θ L ) in the air conditioning target space (S1) by using the lidar , wherein the blowing control unit controls the blowing direction (Φ β , Θ B ) by using the concentration value (N) and the wind direction value (Φ L , Θ L ). a gas detection processing unit calculating a concentration value (N) of a detection target gas in an air conditioning target space (S1) by using a lidar ; a blowing control unit controlling a blowing direction (Φ β , Θ B ) with respect to the air conditioning target space (S1) by using the concentration value (N); and a wind measurement processing unit calculating a wind direction value (Φ L , Θ L ) in the air conditioning target space (S1) by using the lidar , wherein the blowing control unit controls the blowing direction (Φ β , Θ B ) by using the concentration value (N) and the wind direction value (Φ L , Θ L ).
A vehicular disc brake , in which a caliper body is formed by connecting, via a bridge portion straddling an outer periphery of a disc rotor , a pair of action portions facing each other with the disc rotor sandwiched therebetween, the action portions are provided with a pair of friction pad accommodating portions that accommodate a pair of friction pads disposed with the disc rotor sandwiched therebetween, ear pieces project on a disc turn-in side and a disc turn-out side in vehicle forward movement on a disc radial outer side of each of the friction pads , and torque reception stepped portions are formed on the disc radial outer side of each of the friction pad accommodating portions , the torque reception stepped portions supporting the ear pieces so that the ear pieces are movable in a disc shaft direction, characterized by: - a turn-in side pad spring that has a turn-in side resilient portion attached to a part of the bridge portion on the disc turn-in side in vehicle forward movement of the friction pad accommodating portions , the turn-in side resilient portion biasing the friction pads to a disc radial inner side and the disc turn-out side, and a turn-in side retainer portion laid on one of the torque reception stepped portions on the disc turn-in side; and - a turn-out side pad spring that has a turn-out side resilient portion attached to a part of the bridge portion on the disc turn-out side in vehicle forward movement of the friction pad accommodating portions , the turn-out side resilient portion biasing the friction pads to the disc radial inner side, and a turn-out side retainer portion laid on the other of the torque reception stepped portions on the disc turn-out side. - a turn-in side pad spring that has a turn-in side resilient portion attached to a part of the bridge portion on the disc turn-in side in vehicle forward movement of the friction pad accommodating portions , the turn-in side resilient portion biasing the friction pads to a disc radial inner side and the disc turn-out side, and a turn-in side retainer portion laid on one of the torque reception stepped portions on the disc turn-in side; and - a turn-out side pad spring that has a turn-out side resilient portion attached to a part of the bridge portion on the disc turn-out side in vehicle forward movement of the friction pad accommodating portions , the turn-out side resilient portion biasing the friction pads to the disc radial inner side, and a turn-out side retainer portion laid on the other of the torque reception stepped portions on the disc turn-out side.
A method of a proxy server receiving a request from a client to a webserver and a response corresponding with the request from the webserver to the client, the method comprising: receiving a wrapped request at the proxy server; reading the wrapped request at the proxy server to determine whether the request includes a file download; and adding metadata to a response corresponding with the wrapped request at the proxy server , the metadata including whether the request includes a file download. receiving a wrapped request at the proxy server; reading the wrapped request at the proxy server to determine whether the request includes a file download; and adding metadata to a response corresponding with the wrapped request at the proxy server , the metadata including whether the request includes a file download.
Method for producing a coated solid carbide milling cutter with the steps in which a substrate consisting of carbide is provided with a multi-layer coating in a PVD process at least on the surface areas that come into contact with a workpiece during the milling operation, wherein the multi-layer coating comprises a single-layer or multi-layer functional layer that is deposited directly on the substrate surface and a single-layer or multi-layer covering layer deposited on top of said functional layer, wherein the functional layer is deposited by means of high power impulse magnetron sputtering (HIPIMS) in one or more layers of Ti x Al 1-x N with 0.3≤X≤0.55 with an overall thickness of 1 μm to 15 μm and the covering layer is deposited by means of high power impulse magnetron sputtering (HIPIMS) in one or more layers of ZrN with an overall thickness of 50 nm to 1 μm, wherein, during the deposition of the functional layer, each sputtering target of material to be deposited is subjected in the coating chamber to power pulses, which transfer an amount of energy to the sputtering target that exceeds a maximum power density in the pulse of ≥ 500 W/cm 2 .
A thermally conductive trim cover adapted for use on a seat assembly , the trim cover comprising a layer of leather material having a top surface and a bottom surface and a thermally conductive paste layer covering the bottom surface of the layer of leather material to form a thermally conductive trim cover.
Measurement input for connecting a small signal transformer to an electrical device , having - an electrical input for connecting a connection line of the small signal transformer ; - an electrical output for outputting a measurement signal to the electrical device ; and - a correction element which has a digital filter , the filter transfer function of which is adapted for the small signal transformer ; wherein - the filter transfer function of the correction element is defined by means of a parameter set , wherein the parameter set is able to be variably preset specifically for the small signal transformer , characterized in that - the parameter set is able to be preset specifically for different types of small signal transformers on the one hand for current measurement and on the other hand for voltage measurement. - an electrical input for connecting a connection line of the small signal transformer ; - an electrical output for outputting a measurement signal to the electrical device ; and - a correction element which has a digital filter , the filter transfer function of which is adapted for the small signal transformer ; - the filter transfer function of the correction element is defined by means of a parameter set , wherein the parameter set is able to be variably preset specifically for the small signal transformer , - the parameter set is able to be preset specifically for different types of small signal transformers on the one hand for current measurement and on the other hand for voltage measurement.
A catheter device , comprising: an interlock surface formed in an inner surface of a catheter adapter, wherein the interlock surface is configured to secure a cannula capture mechanism within the catheter adapter when a cannula is exposed from the cannula capture mechanism, the cannula capture mechanism comprising: an outer housing an inner housing comprising an interlock component configured to engage the interlock surface to secure the inner housing within the catheter adapter, wherein at least a portion of the inner housing is disposed within the outer housing , wherein the inner housing comprises a plurality of arms ; and the cannula that extends into the inner housing , wherein the cannula comprises a distal tip , wherein in response to the cannula is being retracted proximally within the inner housing , the plurality of arms are configured to contract radially inward, wherein in response to the plurality of arms contracting radially inward, the interlock component is configured to separate from the interlock surface and the outer housing is configured to move from a compressed state to a decompressed state and to bias the plurality of arms of the inner housing together to prevent the cannula from exiting the distal end of the inner housing . an outer housing an inner housing comprising an interlock component configured to engage the interlock surface to secure the inner housing within the catheter adapter, wherein at least a portion of the inner housing is disposed within the outer housing , wherein the inner housing comprises a plurality of arms ; and the cannula that extends into the inner housing , wherein the cannula comprises a distal tip , wherein in response to the cannula is being retracted proximally within the inner housing , the plurality of arms are configured to contract radially inward, wherein in response to the plurality of arms contracting radially inward, the interlock component is configured to separate from the interlock surface and the outer housing is configured to move from a compressed state to a decompressed state and to bias the plurality of arms of the inner housing together to prevent the cannula from exiting the distal end of the inner housing .
A spacer for a fuel pump comprising : a first face configured to engage with a cam shaft ; a second face ; and a third face operationally linked or joined to and disposed between the first face and the second face, wherein the third face is an outer radial surface of the spacer and includes a circumferentially extending fluid passageway configured to displace a lubricating fluid and permit rotation of the cam shaft. a first face configured to engage with a cam shaft ; a second face ; and a third face operationally linked or joined to and disposed between the first face and the second face, wherein the third face is an outer radial surface of the spacer and includes a circumferentially extending fluid passageway configured to displace a lubricating fluid and permit rotation of the cam shaft.