mhurhangee/ep-ind-claims huggingface dataset:
A damping member configured to allow an engaging portion to be inserted through the damping member, the engaging portion being provided in a rotary connector device and including an engaging shaft portion which extends in a predetermined direction and an engaging claw portion which protrudes from the engaging shaft portion, the damping member being formed of an elastic material, and comprising: a first slit through which the engaging shaft portion is inserted; and a second slit extending from the first slit toward the protruding direction side of the engaging claw portion, the first slit and the second slit communicating with each other to provide an insertion portion (15, 16) through which the engaging portion is inserted. the engaging portion being provided in a rotary connector device and including an engaging shaft portion which extends in a predetermined direction and an engaging claw portion which protrudes from the engaging shaft portion, the damping member being formed of an elastic material, and comprising: a first slit through which the engaging shaft portion is inserted; and a second slit extending from the first slit toward the protruding direction side of the engaging claw portion, the first slit and the second slit communicating with each other to provide an insertion portion (15, 16) through which the engaging portion is inserted. a first slit through which the engaging shaft portion is inserted; and a second slit extending from the first slit toward the protruding direction side of the engaging claw portion, the first slit and the second slit communicating with each other to provide an insertion portion (15, 16) through which the engaging portion is inserted.
A method for turning off a pump configured for pumping liquid via a conduit, the pump before being turned off being driven at an operational frequency (F N) by means of a control unit, the method comprising the steps of: - by means of the control unit ramping down the frequency of the pump due to a turn off instruction, and - by means of the control unit stopping the pump after said ramping down, the method being characterized in that a terminal frequency of the ramping down is equal to the operational frequency (F N) of the pump minus at least 10Hz and the ramping down time is at least a reflection time (T R) for the conduit in question, and the terminal frequency of the ramping down is not less than 10Hz, and in that the stopping the pump after said ramping down includes the disengagement of the pump by means of the control unit in order to let the impeller of the pump to freewheel until it stops. - by means of the control unit ramping down the frequency of the pump due to a turn off instruction, and - by means of the control unit stopping the pump after said ramping down,
A method of identifying an Aspergillus terreus fungal species in a patient tissue or a patient body fluid, the method comprising the steps of: isolating the DNA from the patient tissue or the patient body fluid, wherein the DNA comprises host DNA and DNA of the Aspergillus terreus fungal species; amplifying the DNA, wherein the DNA comprises a nucleic acid complementary to a probe, and wherein said probe consists of a sequence of SEQ ID NO:1; hybridizing the probe to the DNA to specifically identify the fungal species; and specifically identifying the Aspergillus terreus fungal species. isolating the DNA from the patient tissue or the patient body fluid, wherein the DNA comprises host DNA and DNA of the Aspergillus terreus fungal species; amplifying the DNA, wherein the DNA comprises a nucleic acid complementary to a probe, and wherein said probe consists of a sequence of SEQ ID NO:1; hybridizing the probe to the DNA to specifically identify the fungal species; and specifically identifying the Aspergillus terreus fungal species.
Shock-valve comprising a housing having an inlet connected to a chamber and an outlet, a valve seat section having a valve seat and being arranged in the housing, a valve element cooperating with the valve seat, and biasing means acting on the valve element in a direction towards the valve seat, wherein a channel arrangement extends from the chamber to the valve seat, wherein the valve seat section is formed in a valve seat element arranged between the inlet and the outlet, characterized in that the channel arrangement forms an odd number of flow paths larger than two, wherein the channel arrangement comprises a number of bores in the valve seat element, wherein the flow paths extend through the bores, wherein the shock-valve is configured such that fluid from the chamber can propagate through the bores into a cavity, wherein a pressure of the fluid in the cavity acts on the valve element and when a force onto the valve element exceeds a force produced by the biasing means, the valve element is moved away from the valve seat of the valve seat element, wherein the shock-valve opens until the pressure has been released to an acceptable magnitude, wherein the biasing means move the valve element back to contact the valve seat thereafter.
A method of grading a ground surface with a traction unit having a three-point hitch system, and a scraper implement attached to the three-point hitch system and drawn behind the traction unit, the method comprising: sensing a pitch angle of the traction unit at a current location of the traction unit with an angle sensor, and communicating the pitch angle of the traction unit to a controller; calculating a leveling variation with the controller, wherein the leveling variation is a numerical difference between a current elevation of a cutting edge of the scraper implement and a desired elevation of the ground surface at a current location of the cutting edge of the scraper implement; and generating a hitch control signal with the controller based on the pitch angle of the traction unit and the leveling variation, wherein the hitch control signal is operable to control the three-point hitch system to adjust a vertical position of the cutting edge of the scraper implement relative to the traction unit, and sensing a current location of the traction unit with a position sensor; communicating the current location of the traction unit to the controller; characterized by further calculating the current location of the cutting edge of the scraper implement using the current location of the traction unit, the pitch angle of the traction unit at the current location of the traction unit, and an identifiable dimension (90A, 90B) of the traction unit or the scraper implement, wherein calculating the current location of the cutting edge of the scraper implement includes calculating the elevation of the cutting edge of the scraper element. sensing a pitch angle of the traction unit at a current location of the traction unit with an angle sensor, and communicating the pitch angle of the traction unit to a controller; calculating a leveling variation with the controller, wherein the leveling variation is a numerical difference between a current elevation of a cutting edge of the scraper implement and a desired elevation of the ground surface at a current location of the cutting edge of the scraper implement; and generating a hitch control signal with the controller based on the pitch angle of the traction unit and the leveling variation, wherein the hitch control signal is operable to control the three-point hitch system to adjust a vertical position of the cutting edge of the scraper implement relative to the traction unit, and sensing a current location of the traction unit with a position sensor; communicating the current location of the traction unit to the controller; characterized by further calculating the current location of the cutting edge of the scraper implement using the current location of the traction unit, the pitch angle of the traction unit at the current location of the traction unit, and an identifiable dimension (90A, 90B) of the traction unit or the scraper implement, wherein calculating the current location of the cutting edge of the scraper implement includes calculating the elevation of the cutting edge of the scraper element.
A method for exposing hidden landmarks of locations for treatment in an anatomical map, comprising: receiving or generating a volume map of at least a portion of a cavity of an organ of a body comprising a plurality of mapped locations, and a point cloud of locations in the cavity marked for treatment; updating the volume map by removing a portion of the mapped locations, so that the locations marked for treatment fall on a surface of the volume map; using the updated volume map, generating a map of at least a portion of the cavity, comprising the locations marked for treatment; and displaying the map to a user. receiving or generating a volume map of at least a portion of a cavity of an organ of a body comprising a plurality of mapped locations, and a point cloud of locations in the cavity marked for treatment; updating the volume map by removing a portion of the mapped locations, so that the locations marked for treatment fall on a surface of the volume map; using the updated volume map, generating a map of at least a portion of the cavity, comprising the locations marked for treatment; and displaying the map to a user.
Process for the stabilization of biobased plastic based on polyester resin, characterized in that carbodiimides of the formula where p can be from 0 to 50, preferably from 0 to 10, are incorporated into the plastic.
A method of sorting scrap particles comprising: imaging a moving conveyor containing scrap particles using a vision system to create a vision image corresponding to a timed location of the conveyor; employing a control system to analyze the vision image as a vision matrix of cells, identify cells in the vision matrix containing a particle, and generate a vision vector containing vision data from the vision matrix for the particle; sensing scrap particles contained on the moving conveyor using a sensing system to create a sensing matrix corresponding to the timed location of the conveyor, the sensing system having at least one array of analog inductive proximity sensors; employing the control system to analyze the sensing matrix, identify cells in the sensing matrix containing a particle, and generate a sensing data vector containing sensing data from the sensing matrix for the particle; and employing the control system to classify the particle into one of at least two classifications of a material as a function of the vision data vector and the sensing data vector. imaging a moving conveyor containing scrap particles using a vision system to create a vision image corresponding to a timed location of the conveyor; employing a control system to analyze the vision image as a vision matrix of cells, identify cells in the vision matrix containing a particle, and generate a vision vector containing vision data from the vision matrix for the particle; sensing scrap particles contained on the moving conveyor using a sensing system to create a sensing matrix corresponding to the timed location of the conveyor, the sensing system having at least one array of analog inductive proximity sensors; employing the control system to analyze the sensing matrix, identify cells in the sensing matrix containing a particle, and generate a sensing data vector containing sensing data from the sensing matrix for the particle; and employing the control system to classify the particle into one of at least two classifications of a material as a function of the vision data vector and the sensing data vector.
A protection case assembly for a handheld device, the protection case assembly comprising: a main case, comprising: an accommodating space, configured to accommodate a handheld device; an opening, provided correspondingly to a lens module of the handheld device; and a frame, detachably disposed in the opening, comprising: a groove set, configured to receive the main case in the opening; said protection case assembly further comprises a backplate corresponding to a back surface of the handheld device, wherein the opening is provided on the backplate, and the groove set is configured to receive the backplate of the main case in the opening; and said frame further includes a pad portion, protruding toward the accommodating space when the frame is disposed in the opening, characterized in that material hardness of the groove set is more than material hardness of the pad portion. an accommodating space, configured to accommodate a handheld device; an opening, provided correspondingly to a lens module of the handheld device; and a frame, detachably disposed in the opening, comprising: a groove set, configured to receive the main case in the opening; said protection case assembly further comprises a backplate corresponding to a back surface of the handheld device, wherein the opening is provided on the backplate, and the groove set is configured to receive the backplate of the main case in the opening; and said frame further includes a pad portion, protruding toward the accommodating space when the frame is disposed in the opening, characterized in that material hardness of the groove set is more than material hardness of the pad portion. a groove set, configured to receive the main case in the opening; said protection case assembly further comprises a backplate corresponding to a back surface of the handheld device, wherein the opening is provided on the backplate, and the groove set is configured to receive the backplate of the main case in the opening; and said frame further includes a pad portion, protruding toward the accommodating space when the frame is disposed in the opening, characterized in that material hardness of the groove set is more than material hardness of the pad portion. a backplate corresponding to a back surface of the handheld device, wherein the opening is provided on the backplate, and the groove set is configured to receive the backplate of the main case in the opening; and said frame further includes a pad portion, protruding toward the accommodating space when the frame is disposed in the opening, characterized in that material hardness of the groove set is more than material hardness of the pad portion.
A composition comprising a spiropyran compound of formula on a support, wherein R 1 - R 6 is selected independently from alkyl, alkoxy, substituted alkene, substituted alkenoxy, aldehyde, halides, substituted alcohol or substituted acid, aryl; R 7 is selected independently from alkyl, substituted alkene, aldehyde, alkyl halides, substituted alcohol, substituted acid or substituted alkenoxy; wherein said support is selected from polymers Poly (ethylene oxide), polypropylene, Polydimethylsiloxane (PDMS), Ethylene propylene diene monomer (EPDM). wherein R 1 - R 6 is selected independently from alkyl, alkoxy, substituted alkene, substituted alkenoxy, aldehyde, halides, substituted alcohol or substituted acid, aryl; R 7 is selected independently from alkyl, substituted alkene, aldehyde, alkyl halides, substituted alcohol, substituted acid or substituted alkenoxy; wherein said support is selected from polymers Poly (ethylene oxide), polypropylene, Polydimethylsiloxane (PDMS), Ethylene propylene diene monomer (EPDM).
A method for enumerating one or more cellular elements (12,13,14) within a biologic fluid sample, comprising the steps of: providing a chamber formed between a first planar member that is transparent and a second planar member, which members (3,4) are separated from one another by a substantially uniform height; introducing the biologic fluid sample into the chamber, wherein the biologic fluid sample includes a plurality of different cellular elements (12,13,14), the chamber height is sized such that the sample extends between the first and second members (3,4) for at least a portion of the chamber; sizing the chamber height relative to the thickness of the one or more cellular elements (12,13,14) such that the cellular elements (12,13,14) non-uniformly distribute within the sample upon introduction into the chamber, wherein the change in distribution for certain cellular elements (12,13,14) within the sample is attributable to the size of the cellular elements (12,13,14) within the sample relative to the height of the chamber; examining substantially all of the sample within the chamber and enumerating all of at least one of the cellular elements (12,13,14); determining the volume of sample contained within the chamber; and determining the number of the at least one of the cellular elements (12,13,14) per unit volume. providing a chamber formed between a first planar member that is transparent and a second planar member, which members (3,4) are separated from one another by a substantially uniform height; introducing the biologic fluid sample into the chamber, wherein the biologic fluid sample includes a plurality of different cellular elements (12,13,14), the chamber height is sized such that the sample extends between the first and second members (3,4) for at least a portion of the chamber; sizing the chamber height relative to the thickness of the one or more cellular elements (12,13,14) such that the cellular elements (12,13,14) non-uniformly distribute within the sample upon introduction into the chamber, wherein the change in distribution for certain cellular elements (12,13,14) within the sample is attributable to the size of the cellular elements (12,13,14) within the sample relative to the height of the chamber; examining substantially all of the sample within the chamber and enumerating all of at least one of the cellular elements (12,13,14); determining the volume of sample contained within the chamber; and determining the number of the at least one of the cellular elements (12,13,14) per unit volume.
A disk brake apparatus comprising: back plates of pads (18a, 18b), having torque transmission surfaces formed on a circumferential-direction end side of each of the back plates; and a caliper, wherein the caliper includes: pad support members, having torque receiving surfaces; and a pad spring for the disk brake, mounted to the pad support members, wherein the pad spring includes: a mounting portion configured to be elastically mounted onto radial outside portions of the pad support members, and a pressure portion having a pair of pressure arms configured to elastically press outer circumferential edges of circumferential-direction one-end portions of the back plates inwardly in a radial direction of a rotor of the disk brake, wherein the pad spring is formed by bending an elastic and corrosion-resistant metal plate so as to elastically press the pads (18a, 18b) in the radial direction, characterized in that the pad spring further comprises a held plate section (52, 52a) formed between the torque transmission surfaces and the torque receiving surfaces. back plates of pads (18a, 18b), having torque transmission surfaces formed on a circumferential-direction end side of each of the back plates; and a caliper, wherein the caliper includes: pad support members, having torque receiving surfaces; and a pad spring for the disk brake, mounted to the pad support members, pad support members, having torque receiving surfaces; and a pad spring for the disk brake, mounted to the pad support members, wherein the pad spring includes: a mounting portion configured to be elastically mounted onto radial outside portions of the pad support members, and a pressure portion having a pair of pressure arms configured to elastically press outer circumferential edges of circumferential-direction one-end portions of the back plates inwardly in a radial direction of a rotor of the disk brake, a mounting portion configured to be elastically mounted onto radial outside portions of the pad support members, and a pressure portion having a pair of pressure arms configured to elastically press outer circumferential edges of circumferential-direction one-end portions of the back plates inwardly in a radial direction of a rotor of the disk brake, wherein the pad spring is formed by bending an elastic and corrosion-resistant metal plate so as to elastically press the pads (18a, 18b) in the radial direction, characterized in that the pad spring further comprises a held plate section (52, 52a) formed between the torque transmission surfaces and the torque receiving surfaces.
A method for manufacturing a resonance tube, comprising: mixing powder materials, to form homogeneous powder particles, wherein the powder materials consists of iron powder with a weight proportion of 50% to 90%, at least one of copper powder and steel powder with a weight proportion of 1% to 30%, an auxiliary material with a weight proportion of 1% to 20%; pressing and molding the powder particles, to form a resonance tube blank; sintering the resonance tube blank in a protective atmosphere, to form a resonance tube semi-finished product; and electroplating the resonance tube semi-finished product, to form the resonance tube; wherein the auxiliary material consists of metal auxiliary material and/or non-metal auxiliary material; wherein the metal auxiliary material consists of at least one of zinc powder, nickel powder, molybdenum powder, and titanium powder; and wherein the non-metal auxiliary material consists of at least one of carbon powder, ceramic powder, and glass powder; wherein, when the auxiliary material includes multiple non-metal materials, these materials totally have a weight proportion of 1% to 20%, when the auxiliary material includes the ceramic powder and glass powder, the ceramic powder and glass powder have a weight proportion of 0.5% and a weight proportion of 2% respectively, or the ceramic powder and glass powder have a weight proportion of 10% and a weight proportion of 4%, respectively. mixing powder materials, to form homogeneous powder particles, wherein the powder materials consists of iron powder with a weight proportion of 50% to 90%, at least one of copper powder and steel powder with a weight proportion of 1% to 30%, an auxiliary material with a weight proportion of 1% to 20%; pressing and molding the powder particles, to form a resonance tube blank; sintering the resonance tube blank in a protective atmosphere, to form a resonance tube semi-finished product; and electroplating the resonance tube semi-finished product, to form the resonance tube; wherein the auxiliary material consists of metal auxiliary material and/or non-metal auxiliary material; wherein the metal auxiliary material consists of at least one of zinc powder, nickel powder, molybdenum powder, and titanium powder; and wherein the non-metal auxiliary material consists of at least one of carbon powder, ceramic powder, and glass powder; wherein, when the auxiliary material includes multiple non-metal materials, these materials totally have a weight proportion of 1% to 20%, when the auxiliary material includes the ceramic powder and glass powder, the ceramic powder and glass powder have a weight proportion of 0.5% and a weight proportion of 2% respectively, or the ceramic powder and glass powder have a weight proportion of 10% and a weight proportion of 4%, respectively.