mhurhangee/ep-ind-claims huggingface dataset:
A dialysis system comprising: a dialysis instrument; a disposable cassette (50, 150) operable with the dialysis instrument, the disposable cassette including a rigid structure (52, 54, 152, 154), the rigid structure including first and second apertures each defined by a non-uniform wall; first and second conductive contacts having non-uniform shapes that mate with the non-uniform walls of the first and second apertures; and electronics (14, 16, 72) operable with the first and second contacts to determine at least one of: (i) a patient access disconnection; (ii) a temperature of a medical fluid flowing through the cassette; and (iii) a conductivity of the medical fluid flowing through the cassette. a dialysis instrument; a disposable cassette (50, 150) operable with the dialysis instrument, the disposable cassette including a rigid structure (52, 54, 152, 154), the rigid structure including first and second apertures each defined by a non-uniform wall; first and second conductive contacts having non-uniform shapes that mate with the non-uniform walls of the first and second apertures; and electronics (14, 16, 72) operable with the first and second contacts to determine at least one of: (i) a patient access disconnection; (ii) a temperature of a medical fluid flowing through the cassette; and (iii) a conductivity of the medical fluid flowing through the cassette.
A multilayer machine direction oriented film for sealing comprising three layers with layer B located between layer A and a third layer C, wherein layer A comprises 25 to 75 wt%, based on the total weight of the layer, of at least one multimodal linear low density polyethylene (LLDPE) copolymer with one C4-12 alpha olefin having a density of 910 to 925 kg/m 3 and an MFR 2 of 0.05 to 5 g/10min which comprises a lower molecular weight component and a higher molecular weight component; and 25 to 75 w%, based on the total weight of the layer, of at least one ethylene based plastomer with a density between 870 and 900 kg/m 3, and wherein layer B comprises 75 to 100 wt% based on the total weight of the layer, of at least one multimodal copolymer of ethylene with at least one C4-12 alpha olefin having a density of 915 to 940 kg/m 3 and an MFR 2 of 0.1 to 5 g/10min; wherein the third layer C is different from layer B and layer A and wherein the third layer C comprises a multimodal copolymer of ethylene with at least one C4-12 alpha olefin an having a density of > 915 to 960 kg/m3 and an MFR 2 of 0.1 to 5 g/10min.. wherein layer A comprises 25 to 75 wt%, based on the total weight of the layer, of at least one multimodal linear low density polyethylene (LLDPE) copolymer with one C4-12 alpha olefin having a density of 910 to 925 kg/m 3 and an MFR 2 of 0.05 to 5 g/10min which comprises a lower molecular weight component and a higher molecular weight component; and 25 to 75 w%, based on the total weight of the layer, of at least one ethylene based plastomer with a density between 870 and 900 kg/m 3, and wherein layer B comprises 75 to 100 wt% based on the total weight of the layer, of at least one multimodal copolymer of ethylene with at least one C4-12 alpha olefin having a density of 915 to 940 kg/m 3 and an MFR 2 of 0.1 to 5 g/10min; wherein the third layer C is different from layer B and layer A and wherein the third layer C comprises a multimodal copolymer of ethylene with at least one C4-12 alpha olefin an having a density of > 915 to 960 kg/m3 and an MFR 2 of 0.1 to 5 g/10min..
A sealing system for a motor, comprising: - a first sealing element (200, 250) configured to be circumferentially disposed around a rotor shaft of the motor, wherein the first sealing element (200, 250) comprises a sealing tip configured to bias against a surface of the rotor shaft, and wherein the first sealing element (200, 250) comprises a sealing portion retained in a first leg of a U-shaped retaining ring, the U-shaped retaining ring comprising a first axial-facing surface configured to be in contact with a first inner housing wall of the motor on a second leg of the U-shaped retaining ring opposite the first leg and a second axial-facing surface on the first leg of the of the U-shaped retaining ring; - a second sealing element (200, 252) configured to be circumferentially disposed around the rotor shaft, wherein the sealing tip of the first sealing element (200, 250) is configured to lift from the surface of the rotor shaft in response to a pressurized fluid directed between the first sealing element (200, 250) and the second sealing element (200, 252), and wherein the first sealing element (200, 250) and the second sealing element (200, 252) are configured to radially float around the rotor shaft; and - a spring coupled axially between the second axial-facing surface of the U-shaped retaining ring and the second sealing element (200, 252), wherein the spring is configured to bias the first sealing element against the first inner housing wall of the motor and to bias the second sealing element against a second inner housing wall of the motor, opposite of the first inner housing wall. - a first sealing element (200, 250) configured to be circumferentially disposed around a rotor shaft of the motor, wherein the first sealing element (200, 250) comprises a sealing tip configured to bias against a surface of the rotor shaft, and wherein the first sealing element (200, 250) comprises a sealing portion retained in a first leg of a U-shaped retaining ring, the U-shaped retaining ring comprising a first axial-facing surface configured to be in contact with a first inner housing wall of the motor on a second leg of the U-shaped retaining ring opposite the first leg and a second axial-facing surface on the first leg of the of the U-shaped retaining ring; - a second sealing element (200, 252) configured to be circumferentially disposed around the rotor shaft, wherein the sealing tip of the first sealing element (200, 250) is configured to lift from the surface of the rotor shaft in response to a pressurized fluid directed between the first sealing element (200, 250) and the second sealing element (200, 252), and wherein the first sealing element (200, 250) and the second sealing element (200, 252) are configured to radially float around the rotor shaft; and - a spring coupled axially between the second axial-facing surface of the U-shaped retaining ring and the second sealing element (200, 252), wherein the spring is configured to bias the first sealing element against the first inner housing wall of the motor and to bias the second sealing element against a second inner housing wall of the motor, opposite of the first inner housing wall.
A laminated acoustic absorption member comprising at least a first fiber layer and a second fiber layer, and at least one substrate layer interposed between the first fiber layer and the second fiber layer, wherein the first fiber layer has an mean flow pore size of 0.5 to 10 μm and a basis weight of 0.1 to 200 g/m 2, wherein the second fiber layer has an mean flow pore size of 0.5 to 10 μm, which is equal to or less than the mean flow pore size of the first fiber layer, and has a basis weight of 0.1 to 200 g/m 2, wherein the substrate layer has an air permeability of 40 cc/cm 2 ·s or more obtained by a Frazier method and has a basis weight of 1 to 700 g/m 2, and wherein the first fiber layer is disposed on a sound-incidence side and the second fiber layer is disposed on a sound-transmission side. wherein the first fiber layer has an mean flow pore size of 0.5 to 10 μm and a basis weight of 0.1 to 200 g/m 2, wherein the second fiber layer has an mean flow pore size of 0.5 to 10 μm, which is equal to or less than the mean flow pore size of the first fiber layer, and has a basis weight of 0.1 to 200 g/m 2, wherein the substrate layer has an air permeability of 40 cc/cm 2 ·s or more obtained by a Frazier method and has a basis weight of 1 to 700 g/m 2, and wherein the first fiber layer is disposed on a sound-incidence side and the second fiber layer is disposed on a sound-transmission side.
A tibial implant configured for attachment to a tibia in a knee arthroplasty, the tibial implant comprising: a baseplate (100, 200, 300, 500) configured for attachment to a partially resected proximal surface of the tibia and comprising: a medial compartment; a lateral compartment; and an anterior bridge portion between the medial and lateral compartments such that a notch is formed between an inner surface of the medial compartment and an inner surface of the lateral compartment; characterised in that the tibial implant further includes an intercondylar component (102, 202, 302, 502) configured to attach to the baseplate (100, 200, 300, 500), the intercondylar component comprising: a medial portion configured to connect to the inner surface of the medial compartment; a lateral portion configured to connect to the inner surface of the lateral compartment; and an arcuate portion between the medial portion and the lateral portion and configured to connect to the anterior bridge portion of the baseplate. a baseplate (100, 200, 300, 500) configured for attachment to a partially resected proximal surface of the tibia and comprising: a medial compartment; a lateral compartment; and an anterior bridge portion between the medial and lateral compartments such that a notch is formed between an inner surface of the medial compartment and an inner surface of the lateral compartment; characterised in that the tibial implant further includes an intercondylar component (102, 202, 302, 502) configured to attach to the baseplate (100, 200, 300, 500), the intercondylar component comprising: a medial portion configured to connect to the inner surface of the medial compartment; a lateral portion configured to connect to the inner surface of the lateral compartment; and an arcuate portion between the medial portion and the lateral portion and configured to connect to the anterior bridge portion of the baseplate. a medial compartment; a lateral compartment; and an anterior bridge portion between the medial and lateral compartments such that a notch is formed between an inner surface of the medial compartment and an inner surface of the lateral compartment; characterised in that the tibial implant further includes an intercondylar component (102, 202, 302, 502) configured to attach to the baseplate (100, 200, 300, 500), the intercondylar component comprising: a medial portion configured to connect to the inner surface of the medial compartment; a lateral portion configured to connect to the inner surface of the lateral compartment; and an arcuate portion between the medial portion and the lateral portion and configured to connect to the anterior bridge portion of the baseplate. a medial portion configured to connect to the inner surface of the medial compartment; a lateral portion configured to connect to the inner surface of the lateral compartment; and an arcuate portion between the medial portion and the lateral portion and configured to connect to the anterior bridge portion of the baseplate.
A method of detecting a LADAR signal, the method comprising: transmitting a laser signal from a platform, wherein the laser signal has a transmitter center wavelength and a transmitter linewidth; returning the laser signal from a target that is moving relative to the platform with a target velocity by directing the laser signal toward the target, wherein the target velocity is a relative velocity of the target relative to the platform in a direction between the platform and the target, and wherein the laser signal returned from the target has a return center wavelength that is offset relative to the transmitter center wavelength by a Doppler offset due to the target velocity; adjusting a dynamic receiver filter to a receiver center wavelength that is based upon an expected return center wavelength, wherein the adjusting includes performing at least one of measuring, estimating, or determining the relative target velocity based upon at least one of measuring, estimating, or determining a velocity of the platform for determining the expected return center wavelength; filtering the laser signal returned from the target with the dynamic receiver filter to reject ambient light mingled with the laser signal returned from the target and to produce a filtered laser signal; and detecting the filtered laser signal to determine a distance between the platform and the target. transmitting a laser signal from a platform, wherein the laser signal has a transmitter center wavelength and a transmitter linewidth; returning the laser signal from a target that is moving relative to the platform with a target velocity by directing the laser signal toward the target, wherein the target velocity is a relative velocity of the target relative to the platform in a direction between the platform and the target, and wherein the laser signal returned from the target has a return center wavelength that is offset relative to the transmitter center wavelength by a Doppler offset due to the target velocity; adjusting a dynamic receiver filter to a receiver center wavelength that is based upon an expected return center wavelength, wherein the adjusting includes performing at least one of measuring, estimating, or determining the relative target velocity based upon at least one of measuring, estimating, or determining a velocity of the platform for determining the expected return center wavelength; filtering the laser signal returned from the target with the dynamic receiver filter to reject ambient light mingled with the laser signal returned from the target and to produce a filtered laser signal; and detecting the filtered laser signal to determine a distance between the platform and the target.
A rotor blade pitch control system comprising: a first rotor blade operatively configured to be driven about a central axis of rotation; said first rotor blade rotatable about a first pitch axis; characterized by: a first pitch drive rotor operatively configured to be driven about said central axis of rotation independently of rotation of said first rotor blade about said central axis of rotation; a first pitch follower rotatable relative to said first pitch drive rotor; said first pitch follower and said first rotor blade coupled such that said first pitch follower rotates with rotation of said first rotor blade about said central axis of rotation; said first pitch drive rotor, said first pitch follower and said first rotor blade coupled such that said first pitch drive rotor is operatively configured to be driven to control an angular displacement of said first pitch drive rotor relative to said first pitch follower about said central axis of rotation and thereby control a pitch of said first rotor blade about said first pitch axis. a first rotor blade operatively configured to be driven about a central axis of rotation; said first rotor blade rotatable about a first pitch axis; characterized by: a first pitch drive rotor operatively configured to be driven about said central axis of rotation independently of rotation of said first rotor blade about said central axis of rotation; a first pitch follower rotatable relative to said first pitch drive rotor; said first pitch follower and said first rotor blade coupled such that said first pitch follower rotates with rotation of said first rotor blade about said central axis of rotation; said first pitch drive rotor, said first pitch follower and said first rotor blade coupled such that said first pitch drive rotor is operatively configured to be driven to control an angular displacement of said first pitch drive rotor relative to said first pitch follower about said central axis of rotation and thereby control a pitch of said first rotor blade about said first pitch axis. a first pitch drive rotor operatively configured to be driven about said central axis of rotation independently of rotation of said first rotor blade about said central axis of rotation; a first pitch follower rotatable relative to said first pitch drive rotor; said first pitch follower and said first rotor blade coupled such that said first pitch follower rotates with rotation of said first rotor blade about said central axis of rotation; said first pitch drive rotor, said first pitch follower and said first rotor blade coupled such that said first pitch drive rotor is operatively configured to be driven to control an angular displacement of said first pitch drive rotor relative to said first pitch follower about said central axis of rotation and thereby control a pitch of said first rotor blade about said first pitch axis.
A latching hinge for arrangement to a door and a door frame, the latching hinge comprising a body configured to be arranged to a door, a hinge part configured to be arranged on a door frame, wherein the body is rotatably arranged to the hinge part, a handle rotatably arranged to the body such that the body is released from the hinge part when the handle is in an unlatched position, and a support plate arranged at a door facing side of the body and configured to abut the door when the latching hinge is arranged thereto, characterized in that the latching hinge further comprises a distance element arranged in-between the support plate and the body and is moveable between at least a first position and a second position, wherein the distance element in the second position provides an increased offset between the body and the support plate than in the first position.
Combination of an artificial fingernail and a double-sided adhesive strip for fastening the artificial fingernail to the natural fingernail, wherein the adhesive strip consists of an elastic material which reduces in terms of its width when pulled in its longitudinal direction and thus reduces the adhesive force, characterized in that, in order to generate the pulling force, a grip tab protrudes at the front end of the adhesive strip and lies, when the artificial fingernail is fastened, under the outwardly protruding region of the artificial fingernail.
A method of enlarging the space beneath a masonry arch bridge, the masonry arch bridge comprising a masonry arch and a spandrel wall at each end of the masonry arch, the method comprising forming a moveable portion of the masonry arch bridge by cutting the spandrel walls to form a cut on each side of the masonry arch, applying a lifting force to the moveable portion to raise the masonry arch to a raised position, and securing the masonry arch in the raised position.
A combination comprising at least a) a fusion protein comprising a1) a binding protein specifically recognizing a cancer-related antigen and a2) an inflammatory cytokine, and b) a chimeric antigen receptor -T cell recognizing a cancer-related antigen, wherein the binding protein comprises at least one of the group selected from • antibody, • modified antibody format, • antibody derivative or fragment retaining target binding properties • antibody-based binding protein, • oligopeptide binder and/or • an antibody mimetic. a) a fusion protein comprising a1) a binding protein specifically recognizing a cancer-related antigen and a2) an inflammatory cytokine, and a1) a binding protein specifically recognizing a cancer-related antigen and a2) an inflammatory cytokine, and b) a chimeric antigen receptor -T cell recognizing a cancer-related antigen, • antibody, • modified antibody format, • antibody derivative or fragment retaining target binding properties • antibody-based binding protein, • oligopeptide binder and/or • an antibody mimetic.
Refrigeration appliance, in particular household refrigeration appliance, with a refrigeration compartment, in which a carrier for refrigerated goods is retained on telescopic pull-outs in a displaceable manner, wherein the carrier for refrigerated goods and each telescopic pull-out have at least two pairs of interlocking projections (27, 30) and recesses (32, 33), and wherein the projection and the recess of the first pair interlock in the vertical and horizontal direction such that they fix one another in place and the projection and the recess of the second pair interlock in the vertical direction such that they fix one another in place, wherein the recess and the projection of the second pair interlock at least in the vertical direction, at least largely without play and retained in a resilient manner, characterised in that the first pair (27, 32) is adjacent to a door more closely than the second pair (30, 33) and the second pair (30, 33) is adjacent to a rear wall of the refrigeration appliance more closely than the first pair (27, 33).
Surgical implant, in particular for use as a hernia repair implant, comprising a base component and a plug component, wherein the base component is adapted to be located beneath a hernia orifice and the plug component is adapted to be placed within a hernia orifice, characterized in that the plug component has a lower area and an upper area, wherein the lower area is designed as a hollow truncated cone having a concavely curved jacket, wherein the lower area is directly attached to the base component, and the upper area is designed as a hollow cone.
A boxer engine with two substantially mirror-symmetric engine sides (L, R) comprising a crankshaft to which is connected, at least two main scotch yoke assemblies each having one main piston arranged inside one main cylinder (I, III; II, IV) of each engine side (R; L), and at least one auxiliary scotch yoke assembly having a pair of auxiliary pistons arranged inside a pair of auxiliary cylinders (V, VII; VI, VIII) of each engine side (R; L), wherein the main scotch yoke assemblies are arranged synchronized on the crankshaft and the auxiliary scotch yoke assembly is arranged 180° offset on the crankshaft, each auxiliary piston defining an outer space and an inner space within each auxiliary cylinder (V, VII; VI, VIII), the inner space facing the opposite engine side (R; L), wherein, said inner spaces of each auxiliary cylinder (V, VII; VI, VIII) pair are in fluid communication and forming a compression chamber, said compression chamber comprises first and second check valves (69, 70), wherein the auxiliary cylinder (V, VII; VI, VIII) pair is adapted to suck in ambient air through the first check valve and compress and pump said air out through the second check valve into a main cylinder (I, III; II, IV) of the opposite engine side (R; L), and said outer spaces of each auxiliary cylinder (V, VII; VI, VIII) pair are in fluid communication and are receiving pressurized exhaust gas from a main cylinder (I, III; II, IV) of the same engine side (R; L). at least two main scotch yoke assemblies each having one main piston arranged inside one main cylinder (I, III; II, IV) of each engine side (R; L), and at least one auxiliary scotch yoke assembly having a pair of auxiliary pistons arranged inside a pair of auxiliary cylinders (V, VII; VI, VIII) of each engine side (R; L), wherein the main scotch yoke assemblies are arranged synchronized on the crankshaft and the auxiliary scotch yoke assembly is arranged 180° offset on the crankshaft, each auxiliary piston defining an outer space and an inner space within each auxiliary cylinder (V, VII; VI, VIII), the inner space facing the opposite engine side (R; L), wherein, said inner spaces of each auxiliary cylinder (V, VII; VI, VIII) pair are in fluid communication and forming a compression chamber, said compression chamber comprises first and second check valves (69, 70), wherein the auxiliary cylinder (V, VII; VI, VIII) pair is adapted to suck in ambient air through the first check valve and compress and pump said air out through the second check valve into a main cylinder (I, III; II, IV) of the opposite engine side (R; L), and said outer spaces of each auxiliary cylinder (V, VII; VI, VIII) pair are in fluid communication and are receiving pressurized exhaust gas from a main cylinder (I, III; II, IV) of the same engine side (R; L).