mhurhangee/patent-ind-claim-en huggingface dataset:
A medical tubing connector comprising: a first connector portion configured for connecting to a mating second connector , a tube engagement portion integral with and opposite the first connector portion and configured for connecting to a medical tube, a liquid passage extending axially through the first connector portion and the tube engagement portion, the first connector portion including a continuous outer surface for sealing engagement with the mating second connector , an annular portion integral with and surrounding the first connector portion , and a connecting portion connecting the first connector portion to the annular portion , the connecting portion being discontinuous permitting liquid to pass through the connecting portion so that liquid is prevented from pooling between the first connector portion and the annular portion , characterized by the connecting portion being defined by: a pair of spaced apart connecting arms extending in a first direction axially from the annular portion in the tube engagement direction, and further extending in a second direction radially to the first connector portion forming an 'L' shape; and further defined by a pair of arcuate openings at sides of the 'L' shaped connecting arms that communicate with an interior space of the annular portion to create secondary passages around the first connector portion and past the connecting portion . a first connector portion configured for connecting to a mating second connector , a tube engagement portion integral with and opposite the first connector portion and configured for connecting to a medical tube, a liquid passage extending axially through the first connector portion and the tube engagement portion, the first connector portion including a continuous outer surface for sealing engagement with the mating second connector , an annular portion integral with and surrounding the first connector portion , and a connecting portion connecting the first connector portion to the annular portion , the connecting portion being discontinuous permitting liquid to pass through the connecting portion so that liquid is prevented from pooling between the first connector portion and the annular portion , characterized by the connecting portion being defined by: a pair of spaced apart connecting arms extending in a first direction axially from the annular portion in the tube engagement direction, and further extending in a second direction radially to the first connector portion forming an 'L' shape; and further defined by a pair of arcuate openings at sides of the 'L' shaped connecting arms that communicate with an interior space of the annular portion to create secondary passages around the first connector portion and past the connecting portion .
An electric reciprocation generator for a dental reamer including a needlelike part that is flexibly bendable and a supporting shaft , the electric reciprocation generator comprising: a housing ; comprising a vibration cylinder mounting hole opening at the distal end part thereof; a vibration cylinder having a pin hole provided at a rear end part of the vibration cylinder and a reciprocation generation unit constructed by a micro-motor , a rotating shaft connected to the micro-motor , and a circular pin provided eccentrically at the tip of the rotating shaft and engaged with the pin hole of the vibration cylinder ; characterized in that the vibration cylinder has a reamer mounting opening opened sideways from a distal end to a rear end thereof, and a receiving rubber present in an inside thereof; the housing includes another reamer mounting opening opened sideways thereof in alignment with the position of the reamer mounting opening ; wherein the reamer mounting opening is adapted to insert the reamer into the vibration cylinder when vibration cylinder is attached to the housing so that the other reamer mounting opening and the reamer mounting opening are positionally coincident with each other, and so that the supporting shaft of the reamer extends outward from the rear end of the vibration cylinder while the needlelike part is held by the receiving rubber . a housing ; comprising a vibration cylinder mounting hole opening at the distal end part thereof; a vibration cylinder having a pin hole provided at a rear end part of the vibration cylinder and a reciprocation generation unit constructed by a micro-motor , a rotating shaft connected to the micro-motor , and a circular pin provided eccentrically at the tip of the rotating shaft and engaged with the pin hole of the vibration cylinder ; characterized in that the vibration cylinder has a reamer mounting opening opened sideways from a distal end to a rear end thereof, and a receiving rubber present in an inside thereof; the housing includes another reamer mounting opening opened sideways thereof in alignment with the position of the reamer mounting opening ; wherein the reamer mounting opening is adapted to insert the reamer into the vibration cylinder when vibration cylinder is attached to the housing so that the other reamer mounting opening and the reamer mounting opening are positionally coincident with each other, and so that the supporting shaft of the reamer extends outward from the rear end of the vibration cylinder while the needlelike part is held by the receiving rubber .
- A handling device for a wheel , comprising a body comprising, in an upper part , a lifting interface , intended to be connected to a lifting means , which body comprises, on a first side, a wheel interface intended to be attached to a wheel to be manipulated, and on a second side opposite the first, a so-called counterweight interface whereupon a counterweight is attached, the lifting interface being positioned such that, when a wheel is attached to the device , the center of gravity (Md) of the assembly formed by the device and the wheel is located substantially vertically to the lifting interface , thus positioning the axis of the wheel horizontally, the device being characterised in that the counterweight comprises a towing triangle and the counterweight interface comprises a top attachment point for interfacing with one end of a first arm of the towing triangle and a bottom attachment point for interfacing with one end of a second arm of the towing triangle .
An electrical connection structure comprising: a current collector which comprises a conductive resin layer comprising a polymer material and a conductive filler; and a conductive member which is in electrical contact with the conductive filler; wherein: the conductive member has a conductive material having a fiber-like shape, a plate-like shape, a lump shape, a cloth shape, or a mesh-like shape, or the conductive member has a conductive material having a granular shape having an average particle diameter of 0.01 to 10 μm; a content of the conductive material in the conductive member is higher than a content of the conductive filler in the conductive resin layer; and the electrical connection structure has a structure in which at least a part of the conductive member extends beyond the surface of the conductive resin layer and is present inside the conductive resin layer. a current collector which comprises a conductive resin layer comprising a polymer material and a conductive filler; and a conductive member which is in electrical contact with the conductive filler; wherein: the conductive member has a conductive material having a fiber-like shape, a plate-like shape, a lump shape, a cloth shape, or a mesh-like shape, or the conductive member has a conductive material having a granular shape having an average particle diameter of 0.01 to 10 μm; a content of the conductive material in the conductive member is higher than a content of the conductive filler in the conductive resin layer; and the electrical connection structure has a structure in which at least a part of the conductive member extends beyond the surface of the conductive resin layer and is present inside the conductive resin layer. the conductive member has a conductive material having a fiber-like shape, a plate-like shape, a lump shape, a cloth shape, or a mesh-like shape, or the conductive member has a conductive material having a granular shape having an average particle diameter of 0.01 to 10 μm; a content of the conductive material in the conductive member is higher than a content of the conductive filler in the conductive resin layer; and the electrical connection structure has a structure in which at least a part of the conductive member extends beyond the surface of the conductive resin layer and is present inside the conductive resin layer.
A method for predicting whether a cancer patient with a solid tumor is responsive to treatment with chemotherapy comprising the steps: • providing a tumor sample previously taken from said patient, wherein the tumor sample is a tumor section and comprises the invasive margin.; and • determining in the tumor section the number of CD3-positive cells per squaremillimeter and either the number of CD8-positive cells per squaremillimeter or the number of Granzyme B-positive or both, wherein the number of cells is determined with immunohistochemistry and/or immunofluorescence using whole slide imaging technology on the whole tissue section; wherein microscopically digitized slides resulting from whole slide imaging are subject to automatic image processing; wherein the biological markers are assessed automatically and; wherein the sample of the patient is classified by algorithms towards their response to the treatment with chemotherapy wherein a number of CD3-positive cells per mm 2 and CD8-positive cells/mm 2 and/or Granzyme B-positive cells/mm 2 above a threshold predefined for each of CD3, CD8 and Granzyme B is indicative that said patient is responsive to said chemotherapy . • providing a tumor sample previously taken from said patient, wherein the tumor sample is a tumor section and comprises the invasive margin.; and • determining in the tumor section the number of CD3-positive cells per squaremillimeter and either the number of CD8-positive cells per squaremillimeter or the number of Granzyme B-positive or both, wherein the number of cells is determined with immunohistochemistry and/or immunofluorescence using whole slide imaging technology on the whole tissue section; wherein microscopically digitized slides resulting from whole slide imaging are subject to automatic image processing; wherein the biological markers are assessed automatically and; wherein the sample of the patient is classified by algorithms towards their response to the treatment with chemotherapy wherein a number of CD3-positive cells per mm 2 and CD8-positive cells/mm 2 and/or Granzyme B-positive cells/mm 2 above a threshold predefined for each of CD3, CD8 and Granzyme B is indicative that said patient is responsive to said chemotherapy .
A method comprising: receiving (S302), by an identity server computer, a credential or derivative thereof from an access device; responsive to receiving the credential or derivative thereof, transmitting (S306), by the identity server computer, a challenge to a mobile device operated by a user; receiving (S312), by the identity server computer, a signed challenge, wherein the signed challenge is signed using a private key on the mobile device; verifying, by the identity server computer, the signed challenge using a public key associated with the private key; and transmitting (S322), by the identity server computer, the signed challenge or a portion thereof to the access device, wherein the access device generates an authorization request message comprising the signed challenge or the portion thereof. receiving (S302), by an identity server computer, a credential or derivative thereof from an access device; responsive to receiving the credential or derivative thereof, transmitting (S306), by the identity server computer, a challenge to a mobile device operated by a user; receiving (S312), by the identity server computer, a signed challenge, wherein the signed challenge is signed using a private key on the mobile device; verifying, by the identity server computer, the signed challenge using a public key associated with the private key; and transmitting (S322), by the identity server computer, the signed challenge or a portion thereof to the access device, wherein the access device generates an authorization request message comprising the signed challenge or the portion thereof.
A method for nanoparticle assembly comprising three production methods in a sequential process, wherein the three production methods consist of milling, homogenation, and ultrasonic processing, wherein the process does not comprise heating; wherein the process does not comprise polymers; and wherein the assembly comprises encapsulating multiple species of nutraceuticals having dissimilar molecular structures or physical properties, with essential phospholipids, fatty acids, and solvents, wherein the concentration of nutraceuticals to structural materials, the structural materials being essential phospholipids, fatty acids, and solvents, is in the range of 1:3 to 1:1.
A semiconductor device including: a lead frame on which a semiconductor element is mounted; a first insulating resin member sealing a mounting surface , of the lead frame , on which the semiconductor element is mounted; and a second insulating resin member sealing a heat dissipating surface , of the lead frame , opposite to the mounting surface , wherein the second insulating resin member contains a filler having a maximum diameter of 0.02 mm to 0.075 mm, and the second insulating resin member includes a thin molded portion formed in contact with the heat dissipating surface of the lead frame , the thin molded portion having a thickness 1.1 times to 2 times the maximum diameter of the filler, the semiconductor device includes, at an interface between the first insulating resin member and the second insulating resin member , a mixture layer in which these resins are mixed with each other, wherein a lead frame space filled portion which is a portion of the second insulating resin member is formed in at least a portion of a space between two separated regions of the lead frame , and wherein the semiconductor device includes depressions and projections at a side surface of the lead frame on which the lead frame space filled portion is formed, the depressions and projections being burrs . a lead frame on which a semiconductor element is mounted; a first insulating resin member sealing a mounting surface , of the lead frame , on which the semiconductor element is mounted; and a second insulating resin member sealing a heat dissipating surface , of the lead frame , opposite to the mounting surface , wherein the second insulating resin member contains a filler having a maximum diameter of 0.02 mm to 0.075 mm, and the second insulating resin member includes a thin molded portion formed in contact with the heat dissipating surface of the lead frame , the thin molded portion having a thickness 1.1 times to 2 times the maximum diameter of the filler, the semiconductor device includes, at an interface between the first insulating resin member and the second insulating resin member , a mixture layer in which these resins are mixed with each other, wherein a lead frame space filled portion which is a portion of the second insulating resin member is formed in at least a portion of a space between two separated regions of the lead frame , and wherein the semiconductor device includes depressions and projections at a side surface of the lead frame on which the lead frame space filled portion is formed, the depressions and projections being burrs .
A system for creating a fistula between two vessels, comprising: a first catheter comprising a first magnetic element ; and a second catheter comprising a second magnetic element ; wherein at least one of the first and second catheters comprises a fistula-forming element , characterized in that the first magnetic element is configured to produce a first magnetic field that is stronger on a first side of the first magnetic element than on a second side of the first magnetic element and in that the first magnetic element comprises a plurality of regions each having a polarity, and wherein the plurality of regions of the first magnetic element is configured such that the polarity of each region is rotated a first angle relative to the polarity of an immediately-preceding region in a proximal-to-distal direction. a first catheter comprising a first magnetic element ; and a second catheter comprising a second magnetic element ; wherein at least one of the first and second catheters comprises a fistula-forming element , characterized in that the first magnetic element is configured to produce a first magnetic field that is stronger on a first side of the first magnetic element than on a second side of the first magnetic element and in that the first magnetic element comprises a plurality of regions each having a polarity, and wherein the plurality of regions of the first magnetic element is configured such that the polarity of each region is rotated a first angle relative to the polarity of an immediately-preceding region in a proximal-to-distal direction.
A peristaltic pump, comprising: a raceway configured to retain a tube ; a plunger configured to peristaltically actuate the tube disposed within the raceway; a motor configured to engage the plunger to actuate the plunger ; and a heater disposed in thermal-conductive contact with the tube , characterized in that the heater is disposed on the plunger . a raceway configured to retain a tube ; a plunger configured to peristaltically actuate the tube disposed within the raceway; a motor configured to engage the plunger to actuate the plunger ; and a heater disposed in thermal-conductive contact with the tube , characterized in that the heater is disposed on the plunger .
Central module for a three-phase electrical switching device, the central module comprising a central plinth intended to support a central switch module and a front face comprising control/command members for the switching device, the central plinth comprising: - lateral fixing means placed on each side of the central plinth and capable of fixing, removably to the central module , two lateral plinths intended to each bear a lateral switch module , and - an actuation mechanism intended to actuate the central switch module of the switching device, characterized in that the central plinth furthermore comprises: - rear fixing means placed at the rear of the central plinth and capable of fixing, removably to the central module , a rear plinth intended to bear two rear switch modules , and - means for transmitting movements of the actuation mechanism to the rear plinth and side plinths when the latter are fixed to the central module , to be able to actuate other switch modules of the switching device. - lateral fixing means placed on each side of the central plinth and capable of fixing, removably to the central module , two lateral plinths intended to each bear a lateral switch module , and - an actuation mechanism intended to actuate the central switch module of the switching device, - rear fixing means placed at the rear of the central plinth and capable of fixing, removably to the central module , a rear plinth intended to bear two rear switch modules , and - means for transmitting movements of the actuation mechanism to the rear plinth and side plinths when the latter are fixed to the central module , to be able to actuate other switch modules of the switching device.
A medical device system comprising: a sensing module coupled to a plurality of electrodes defining a plurality of available sensing vectors; a therapy delivery module coupled to the plurality of electrodes, the therapy delivery module configured to deliver a tachycardia therapy; and a control module configured to: generate, for each of the plurality of available sensing vectors, a plurality of morphology templates of a first cardiac signal received from the sensing module for each of a plurality of patient postures, the first cardiac signal received during a known cardiac rhythm; receive a second cardiac signal from the sensing module during an unknown cardiac rhythm using one or more of the plurality of available sensing vectors; compare the second cardiac signal to at least a portion of the plurality of morphology templates without determining a current posture of the patient; and detect the unknown cardiac rhythm as supraventricular tachycardia in response to the second cardiac signal matching at least one of the plurality of morphology templates. a sensing module coupled to a plurality of electrodes defining a plurality of available sensing vectors; a therapy delivery module coupled to the plurality of electrodes, the therapy delivery module configured to deliver a tachycardia therapy; and a control module configured to: generate, for each of the plurality of available sensing vectors, a plurality of morphology templates of a first cardiac signal received from the sensing module for each of a plurality of patient postures, the first cardiac signal received during a known cardiac rhythm; receive a second cardiac signal from the sensing module during an unknown cardiac rhythm using one or more of the plurality of available sensing vectors; compare the second cardiac signal to at least a portion of the plurality of morphology templates without determining a current posture of the patient; and detect the unknown cardiac rhythm as supraventricular tachycardia in response to the second cardiac signal matching at least one of the plurality of morphology templates. generate, for each of the plurality of available sensing vectors, a plurality of morphology templates of a first cardiac signal received from the sensing module for each of a plurality of patient postures, the first cardiac signal received during a known cardiac rhythm; receive a second cardiac signal from the sensing module during an unknown cardiac rhythm using one or more of the plurality of available sensing vectors; compare the second cardiac signal to at least a portion of the plurality of morphology templates without determining a current posture of the patient; and detect the unknown cardiac rhythm as supraventricular tachycardia in response to the second cardiac signal matching at least one of the plurality of morphology templates.
A computer-implemented method comprising: generating an ultrasonic code for a first computer device; sending code data based on the ultrasonic code to the first device to enable the first computer device to broadcast an audio signal based on the ultrasonic code; receiving decode data from a second computer device; verifying the decode data represents the second computer device correctly decoded the ultrasonic code broadcasted by the first computer device; and based on verification, pairing the first and second computer devices. generating an ultrasonic code for a first computer device; sending code data based on the ultrasonic code to the first device to enable the first computer device to broadcast an audio signal based on the ultrasonic code; receiving decode data from a second computer device; verifying the decode data represents the second computer device correctly decoded the ultrasonic code broadcasted by the first computer device; and based on verification, pairing the first and second computer devices.