mhurhangee/ep-ind-claims huggingface dataset:
A pet grooming tool comprising: a pet engageable portion having a plurality of teeth, the plurality of teeth being arranged in a row, each of the plurality of teeth having a plane of symmetry and a tip, the plane of symmetry defining a cross-section of the tip of said tooth, the cross-section of the tip of said tooth having a corner at a lowermost portion of a rear surface of the pet engageable portion, said corner having an interior angle, wherein at least two of the plurality of teeth are adjacent one another and intersect at a root, and the root has an interior edge that has an interior angle, and a handle portion secured to the pet engageable portion, characterized in that: - the pet engageable portion is formed of a first polymeric material; - said row has between 7.1 and 8.7 teeth per cm (eighteen and twenty-two teeth per inch); - the corner's interior angle is between fifty and seventy degrees; - the handle portion is formed of a second polymeric material, the second polymeric material being different from the first polymeric material, and the interior edge's interior angle is between thirty and fifty degrees. a pet engageable portion having a plurality of teeth, the plurality of teeth being arranged in a row, each of the plurality of teeth having a plane of symmetry and a tip, the plane of symmetry defining a cross-section of the tip of said tooth, the cross-section of the tip of said tooth having a corner at a lowermost portion of a rear surface of the pet engageable portion, said corner having an interior angle, wherein at least two of the plurality of teeth are adjacent one another and intersect at a root, and the root has an interior edge that has an interior angle, and a handle portion secured to the pet engageable portion, characterized in that: - the pet engageable portion is formed of a first polymeric material; - said row has between 7.1 and 8.7 teeth per cm (eighteen and twenty-two teeth per inch); - the corner's interior angle is between fifty and seventy degrees; - the handle portion is formed of a second polymeric material, the second polymeric material being different from the first polymeric material, and the interior edge's interior angle is between thirty and fifty degrees. - the pet engageable portion is formed of a first polymeric material; - said row has between 7.1 and 8.7 teeth per cm (eighteen and twenty-two teeth per inch); - the corner's interior angle is between fifty and seventy degrees; - the handle portion is formed of a second polymeric material, the second polymeric material being different from the first polymeric material, and the interior edge's interior angle is between thirty and fifty degrees.
A method of preparing an alloy catalyst for fuel cells, comprising: vaporizing at least two catalyst precursors in separate vaporizers; supplying the at least two vaporized catalyst precursors to a reactor through separate transfer lines without contact therebetween, wherein the reactor is preheated to a predetermined temperature for reacting the at least two vaporized catalyst precursors; and synthesizing an alloy catalyst in the reactor, wherein the at least two catalyst precursors are a platinum (Pt) catalyst precursor and at least one co-catalyst precursor wherein the method further comprises: performing heat treatment of the synthesized alloy catalyst. vaporizing at least two catalyst precursors in separate vaporizers; supplying the at least two vaporized catalyst precursors to a reactor through separate transfer lines without contact therebetween, wherein the reactor is preheated to a predetermined temperature for reacting the at least two vaporized catalyst precursors; and synthesizing an alloy catalyst in the reactor, wherein the at least two catalyst precursors are a platinum (Pt) catalyst precursor and at least one co-catalyst precursor wherein the method further comprises: performing heat treatment of the synthesized alloy catalyst.
A coating composition comprising: (i) an alkyd resin; (ii) solid organic filler particles, wherein said solid organic filler particles comprise poly(meth)acrylate, polystyrene, polyacrylamide, polyurethane, polysiloxane, polyolefin, polyacrylonitrile, nylon, poly(vinyl ester), and mixtures thereof, are substantially spherical, and have an average diameter of 10 to 30 μm as determined by ISO 13320:2009; (iii) pigment; and (iv) solvent; wherein said composition comprises less than 8 wt% inorganic extender, based on the total weight of the composition. (i) an alkyd resin; (ii) solid organic filler particles, wherein said solid organic filler particles comprise poly(meth)acrylate, polystyrene, polyacrylamide, polyurethane, polysiloxane, polyolefin, polyacrylonitrile, nylon, poly(vinyl ester), and mixtures thereof, are substantially spherical, and have an average diameter of 10 to 30 μm as determined by ISO 13320:2009; (iii) pigment; and (iv) solvent;
An exoskeleton configured to be coupled to a lower extremity of a user, said exoskeleton comprising: a thigh link configured to move in unison with a user's thigh; a shank link configured to move in unison with a user's shank; a knee joint positioned between said thigh link and shank link and configured to allow flexion and extension between said shank link and said thigh link; a torque generator configured to create a controllable resistive torque between said thigh link and said shank link along flexion direction; at least one leg sensor capable of producing a leg signal representing the absolute angle of said thigh link with respect to a vertical gravitational line; and a controller in communication with said torque generator, wherein said controller is configured to move said exoskeleton from a free state to a resistive state when the leg signal becomes larger than a pre-specified maximum thigh angle, wherein in said resistive state, said torque generator provides selected resistive torques in response to flexion between said thigh link and said shank link, and wherein in said free state the torque is smaller than in the resistive state. a thigh link configured to move in unison with a user's thigh; a shank link configured to move in unison with a user's shank; a knee joint positioned between said thigh link and shank link and configured to allow flexion and extension between said shank link and said thigh link; a torque generator configured to create a controllable resistive torque between said thigh link and said shank link along flexion direction; at least one leg sensor capable of producing a leg signal representing the absolute angle of said thigh link with respect to a vertical gravitational line; and a controller in communication with said torque generator, wherein said controller is configured to move said exoskeleton from a free state to a resistive state when the leg signal becomes larger than a pre-specified maximum thigh angle, wherein in said resistive state, said torque generator provides selected resistive torques in response to flexion between said thigh link and said shank link, and wherein in said free state the torque is smaller than in the resistive state.
A motorcycle comprising: - a motorcycle body (2, 3, 4) extending along a longitudinal axis (L-L) and having a front part, a tail part and a central part comprised between the front part and the tail part; - at least two wheels (5, 6) constrained to the motorcycle body (2, 3, 4), including a front wheel and a rear wheel; - a traction engine constrained to the motorcycle body (2, 3, 4) and operatively connected to at least one of the wheels (5, 6); - at least one headlight fixed to the front part and at least one rear light fixed to the tail part; - at least one kickstand adapted to be moved in order to selectively assume a resting operating position and a working operating position, wherein, in the working operating position, the kickstand has at least one end portion leaning against a ground portion being placed laterally and/or under the motorcycle body; - a first auxiliary lighting device adapted to light the kickstand or render it luminous; characterized by the fact that the first auxiliary lighting device is oriented in order to light the kickstand when the kickstand is in the resting position. - a motorcycle body (2, 3, 4) extending along a longitudinal axis (L-L) and having a front part, a tail part and a central part comprised between the front part and the tail part; - at least two wheels (5, 6) constrained to the motorcycle body (2, 3, 4), including a front wheel and a rear wheel; - a traction engine constrained to the motorcycle body (2, 3, 4) and operatively connected to at least one of the wheels (5, 6); - at least one headlight fixed to the front part and at least one rear light fixed to the tail part; - at least one kickstand adapted to be moved in order to selectively assume a resting operating position and a working operating position, wherein, in the working operating position, the kickstand has at least one end portion leaning against a ground portion being placed laterally and/or under the motorcycle body; - a first auxiliary lighting device adapted to light the kickstand or render it luminous;
Valve system having at least one open-loop and/or closed-loop control device and at least one electrically actuatable directional valve having an actuator, which is held by means of at least one spring (5.1, 5.2) in a construction location, preferably in a central position, and which can be moved by way of the open-loop and/or closed-loop control device by means of first and second solenoid coils (7.1, 7.2) acting in the opposite direction on the actuator, characterized by a single current measuring device which is provided and designed to measure a total current (I sum) flowing through the two solenoid coils (7.1, 7.2), wherein the open-loop and/or closed-loop control device is provided and designed to calculate from the measured total current (I sum) a current (I 1) flowing through the first solenoid coil (7.1) and/or a current (I 2) flowing through the second solenoid coil (7.2).
A method comprising: receiving, by a wireless device, one or more messages comprising: a first radio network temporary identifier, RNTI, for first semi-persistent scheduling, SPS, resources; and a second RNTI for second SPS resources; receiving downlink control information, DCI; based on a determination that the DCI corresponds to the second RNTI, validating the DCI without considering a cyclic shift value associated with the second SPS resources; and based on successful validation of the DCI, activating the second SPS resources. receiving, by a wireless device, one or more messages comprising: a first radio network temporary identifier, RNTI, for first semi-persistent scheduling, SPS, resources; and a second RNTI for second SPS resources; a first radio network temporary identifier, RNTI, for first semi-persistent scheduling, SPS, resources; and a second RNTI for second SPS resources; receiving downlink control information, DCI; based on a determination that the DCI corresponds to the second RNTI, validating the DCI without considering a cyclic shift value associated with the second SPS resources; and based on successful validation of the DCI, activating the second SPS resources.
An information processing apparatus characterized in that it is capable of performing a plurality of processes in parallel and includes a plurality of operation components (11, 12, 201a to 201d, 310) selected from processors, processor cores, memory devices each including individual components (21 to 24, 210a, 210b, 320, 330) selected from register circuits, buffer circuits, register sets, instruction buffers, functional units, a thread in a physical partition, a plurality of threads in a physical partition, a register unit, a plurality of CPUs in a physical partition, a CPU chip in a physical partition, a plurality of CPU chips in a physical partition, a CPU core in a physical partition, a plurality of CPU cores in a physical partition, memory chips, a partial area in a memory chip provided for performing respective processes to be performed in parallel, the information processing apparatus comprising a storage unit (2, 113) configured to store a number of right-to-use licenses, one given for each of the operation components; and a control unit configured to permit activation of as many operation components as the number of right-to-use licenses out of the plurality of operation components, and upon detecting an abnormality in one of the individual components included in one of active operation components, deactivate the other individual components of the active operation component including the individual component from which the abnormality was detected, and activate one of inactive operation components. a storage unit (2, 113) configured to store a number of right-to-use licenses, one given for each of the operation components; and a control unit configured to permit activation of as many operation components as the number of right-to-use licenses out of the plurality of operation components, and upon detecting an abnormality in one of the individual components included in one of active operation components, deactivate the other individual components of the active operation component including the individual component from which the abnormality was detected, and activate one of inactive operation components.
A drip emitter (10, 100, 1000, 1010, 1100, 1110) comprising a frame, preferably a plastic frame, and a membrane, preferably an elastomeric membrane, both formed by injection molding, wherein the frame and membrane being attached to each other, characterised in that the frame comprises a periphery bounding and surrounding the membrane, and the membrane comprises a regulating part configured to overlay a regulating chamber of the emitter in an assembled state of the emitter, and an area A1 of the regulating part and an area A2 of the membrane bound within the periphery satisfies a relation of about 0.7 ≤ A1/A2 ≤ 0.95; preferably about 0.7 ≤ A1/A2 ≤ 0.9.
A thermal flowmeter, comprising: a measurement tube that has an inflow port into which a liquid flows and an outflow port that allows the liquid which flows in from the inflow port to flow out, and has an internal flow passage where the liquid flow formed to extend along an axis; a plurality of detection sections (12d,12d',12d'') each of which has a heating resistor and a temperature detecting resistor (12b,12c) along the axis and is provided at the measurement tube; and a control section that calculates a flow rate of the liquid flowing through the internal flow passage based on signals from the plurality of detection sections (12d, 12d', 12d"), wherein the plurality of detection sections (12d,12d',12d'') are respectively provided with predetermined intervals in a circumferential direction with the axis as a center, and the control section calculates the flow rate of the liquid flowing in the internal flow passage by weighting respective flow rates obtained based on the signals from the respective detection sections (12d,12d',12d'') and thereafter adding up the respective flow rates, characterized in that the control section compares a flow rate obtained based on a signal from one of the detection sections (12d,12d',12d'') and a flow rate obtained based on a signal from another of the detection sections (12d, 12d', 12d''), and weights a larger flow rate more heavily than a small flow rate. a measurement tube that has an inflow port into which a liquid flows and an outflow port that allows the liquid which flows in from the inflow port to flow out, and has an internal flow passage where the liquid flow formed to extend along an axis; a plurality of detection sections (12d,12d',12d'') each of which has a heating resistor and a temperature detecting resistor (12b,12c) along the axis and is provided at the measurement tube; and a control section that calculates a flow rate of the liquid flowing through the internal flow passage based on signals from the plurality of detection sections (12d, 12d', 12d"), wherein the plurality of detection sections (12d,12d',12d'') are respectively provided with predetermined intervals in a circumferential direction with the axis as a center, and the control section calculates the flow rate of the liquid flowing in the internal flow passage by weighting respective flow rates obtained based on the signals from the respective detection sections (12d,12d',12d'') and thereafter adding up the respective flow rates, the control section compares a flow rate obtained based on a signal from one of the detection sections (12d,12d',12d'') and a flow rate obtained based on a signal from another of the detection sections (12d, 12d', 12d''), and weights a larger flow rate more heavily than a small flow rate.
Textile product containing synthetic fibres, in particular item of clothing, characterized in that a closeable wash bag is integrated into the textile product, which bag is made from a thermoset plastic screen fabric having an average mesh width in the range of 5 μm to 200 μm, which is suitable in its dimensions for completely containing the textile product and which during a washing operation with the textile product contained within the closed wash bag serves as a retaining means for synthetic fibres washed out of the textile product.
A high-modulus glass fiber composition, comprising the following components expressed as percentage by weight: SiO 2 55-64% Al 2 O 3 13-24% Y 2 O 3 1.5-5% CaO 3.4-10.9% MgO 8-14% CaO+MgO+SrO <22% Li 2 O+Na 2 O+K 2 O <2% TiO 2 <2% Fe 2 O 3 <1.5% La 2 O 3 0-1.2% wherein, the range of the weight percentage ratio C1= (Li 2 O+Na 2 O+K 2 O)/(Y 2 O 3 +La 2 O 3) is greater than 0.26, and the range of the weight percentage ratio C2= MgO/(CaO+SrO) is 0.8-2.1.
Seating apparatus comprising a suitably shaped housing box, a cushion which is associated with it and ventilation (11, 12) and ionization means disposed inside of said box, capable of projecting ionized air inside the cushion characterized by the fact that said housing box includes in the lower part a hole and in the side part an intake hole for the air from the outside.
A method of applying a foil on an inclined roof structure, wherein the inclined roof structure comprises a ridge beam, a gutter extending parallel to the ridge beam, a plurality of parallel roof bars interconnecting the ridge beam and the gutter and a ventilation opening frame which surrounds a ventilation opening that is located between the ridge beam, the gutter and two neighbouring roof bars, wherein the method comprises the steps of: supplying a window frame which is complementary to the ventilation opening frame and fits inside the ventilation opening frame, introducing the window frame within the ventilation opening frame and holding the window frame at a fixed position with respect to the ventilation opening frame, laying a foil onto the inclined roof structure such that it extends at least from the ridge beam to the gutter and covers at least the neighbouring roof bars, fixing the foil to the window frame and the ventilation opening frame along respective circumferential edges thereof, cutting the foil between the window frame and the ventilation opening frame, hence forming the window frame including the foil. supplying a window frame which is complementary to the ventilation opening frame and fits inside the ventilation opening frame, introducing the window frame within the ventilation opening frame and holding the window frame at a fixed position with respect to the ventilation opening frame, laying a foil onto the inclined roof structure such that it extends at least from the ridge beam to the gutter and covers at least the neighbouring roof bars, fixing the foil to the window frame and the ventilation opening frame along respective circumferential edges thereof, cutting the foil between the window frame and the ventilation opening frame, hence forming the window frame including the foil.
A planar array catheter comprising an elongated catheter shaft (22; 305) including a proximal end and a distal end, and defining a longitudinal axis, a flexible, planar array coupled to the distal end of the catheter shaft (22; 305), the planar array configured to conform to tissue, and including two or more struts extending substantially parallel with the longitudinal axis, each of the struts lying in a common plane and having a plurality of electrodes coupled thereto, wherein each electrode of the plurality of electrodes is configured and arranged to detect electrophysiological characteristics of tissue in contact with the planar array and selectively ablate the tissue, and ablation controller circuitry communicatively coupled to the electrodes and configured and arranged to receive signals from the electrodes indicative of the electrophysiological characteristics of the tissue in contact with the planar array, generate an electrophysiology map of the tissue, and control an ablation therapy of the tissue based at least in part on the electrophysiology map, wherein the plurality of electrodes in the planar array are further configured to conduct radio-frequency tissue ablation, wherein the ablation controller circuitry is further configured to operate the plurality of electrodes in both monopolar and bipolar configurations for tissue ablation, and also configured to use a combination of monopolar RF and bipolar RF modes to vary an ablation treatment depth. an elongated catheter shaft (22; 305) including a proximal end and a distal end, and defining a longitudinal axis, a flexible, planar array coupled to the distal end of the catheter shaft (22; 305), the planar array configured to conform to tissue, and including two or more struts extending substantially parallel with the longitudinal axis, each of the struts lying in a common plane and having a plurality of electrodes coupled thereto, wherein each electrode of the plurality of electrodes is configured and arranged to detect electrophysiological characteristics of tissue in contact with the planar array and selectively ablate the tissue, and ablation controller circuitry communicatively coupled to the electrodes and configured and arranged to receive signals from the electrodes indicative of the electrophysiological characteristics of the tissue in contact with the planar array, generate an electrophysiology map of the tissue, and control an ablation therapy of the tissue based at least in part on the electrophysiology map, wherein the plurality of electrodes in the planar array are further configured to conduct radio-frequency tissue ablation, wherein the ablation controller circuitry is further configured to operate the plurality of electrodes in both monopolar and bipolar configurations for tissue ablation, and also configured to use a combination of monopolar RF and bipolar RF modes to vary an ablation treatment depth.
A gas turbine engine fan blade, the fan blade comprising: an airfoil having a leading edge and a trailing edge in a chordwise direction, a tip and a root in a spanwise direction, a suction side and a pressure side; a sheath comprising a solid portion that covers the leading edge of the airfoil, wherein at least one of a first wing and a second wing of the sheath extends over at least 35% of the airfoil in a chordwise direction in a region of the airfoil near the tip of the airfoil; and a blade body between the suction side and the pressure side of the airfoil, wherein the blade body defines a cavity and wherein the cavity is located in a portion of the airfoil covered by the sheath. an airfoil having a leading edge and a trailing edge in a chordwise direction, a tip and a root in a spanwise direction, a suction side and a pressure side; a sheath comprising a solid portion that covers the leading edge of the airfoil, wherein at least one of a first wing and a second wing of the sheath extends over at least 35% of the airfoil in a chordwise direction in a region of the airfoil near the tip of the airfoil; and a blade body between the suction side and the pressure side of the airfoil, wherein the blade body defines a cavity and wherein the cavity is located in a portion of the airfoil covered by the sheath.