mhurhangee/patent-ind-claim-en huggingface dataset:
An article of footwear having an upper and a sole structure secured to the upper, the upper including a knitted component comprising: a monofilament knit element formed by at least one monofilament strand, the monofilament knit element forming a substantial majority of the upper and extending through at least a portion of each of a forefoot region , a midfoot region , and a heel region of the article of footwear ; and a peripheral portion formed by a first yarn; wherein the monofilament knit element is formed of unitary knit construction with the peripheral portion of the knitted component such that the knitted component is a one-piece element; and the knitted component further comprising a boundary zone disposed between the monofilament knit element and the peripheral portion, the boundary zone defining a transition in the knitted component between the monofilament knit element and the peripheral portion, wherein the boundary zone includes at least one course formed using the at least one monofilament strand that is continuous with at least one course formed using the first yarn, and wherein the peripheral portion is substantially free of the at least one monofilament strand; characterized in that the monofilament knit element is substantially free of the first yarn; and in that the first yarn is a natural or synthetic twisted fiber yarn. a monofilament knit element formed by at least one monofilament strand, the monofilament knit element forming a substantial majority of the upper and extending through at least a portion of each of a forefoot region , a midfoot region , and a heel region of the article of footwear ; and a peripheral portion formed by a first yarn; wherein the monofilament knit element is formed of unitary knit construction with the peripheral portion of the knitted component such that the knitted component is a one-piece element; and the knitted component further comprising a boundary zone disposed between the monofilament knit element and the peripheral portion, the boundary zone defining a transition in the knitted component between the monofilament knit element and the peripheral portion, wherein the boundary zone includes at least one course formed using the at least one monofilament strand that is continuous with at least one course formed using the first yarn, and wherein the peripheral portion is substantially free of the at least one monofilament strand; characterized in that the monofilament knit element is substantially free of the first yarn; and in that the first yarn is a natural or synthetic twisted fiber yarn.
A heat exchanger adapted to be used in a vapor compression system, the heat exchanger comprising: a shell having a refrigerant inlet that at least refrigerant with liquid refrigerant flows therethrough and a shell refrigerant vapor outlet, with a longitudinal center axis of the shell extending substantially parallel to a horizontal plane; a refrigerant distributor fluidly communicating with the refrigerant inlet and disposed within the shell, the refrigerant distributor having at least one liquid refrigerant distribution opening that distributes liquid refrigerant; a tube bundle disposed inside of the shell below the refrigerant distributor so that the liquid refrigerant discharged from the refrigerant distributor is supplied to the tube bundle, the tube bundle including a plurality of heat transfer tubes grouped together; and characterized by further comprising a first baffle extending from a first lateral side of the shell, the first baffle being vertically disposed 5% to 40% of an overall height of the shell above a bottom edge of the shell, and the first baffle extending laterally inwardly from the first lateral side of the shell by a distance not more than 20% of a width of the shell measured at the first baffle and perpendicularly relative to the longitudinal center axis. a shell having a refrigerant inlet that at least refrigerant with liquid refrigerant flows therethrough and a shell refrigerant vapor outlet, with a longitudinal center axis of the shell extending substantially parallel to a horizontal plane; a refrigerant distributor fluidly communicating with the refrigerant inlet and disposed within the shell, the refrigerant distributor having at least one liquid refrigerant distribution opening that distributes liquid refrigerant; a tube bundle disposed inside of the shell below the refrigerant distributor so that the liquid refrigerant discharged from the refrigerant distributor is supplied to the tube bundle, the tube bundle including a plurality of heat transfer tubes grouped together; and characterized by further comprising a first baffle extending from a first lateral side of the shell, the first baffle being vertically disposed 5% to 40% of an overall height of the shell above a bottom edge of the shell, and the first baffle extending laterally inwardly from the first lateral side of the shell by a distance not more than 20% of a width of the shell measured at the first baffle and perpendicularly relative to the longitudinal center axis.
A method comprising: performing a memory read operation at a magnetic tunnel junction, MTJ, storage element, wherein the memory read operation includes receiving a reference value from a multiplexer , MUX, and wherein the reference value represents a lowest resistance value that is considered a particular logic value; and performing a memory write operation at the MTJ storage element by, during a single memory clock cycle : receiving a first value corresponding to a first logic value stored at the MTJ storage element ; receiving, from the MUX, a second value corresponding to a second logic value to be stored at the MTJ storage element by the memory write operation; comparing the first value to the second value ; and selectively writing the second logic value to the MTJ storage element in response to determining that the first value corresponding to the first logic value does not match the second value corresponding to the second logic value. performing a memory read operation at a magnetic tunnel junction, MTJ, storage element, wherein the memory read operation includes receiving a reference value from a multiplexer , MUX, and wherein the reference value represents a lowest resistance value that is considered a particular logic value; and performing a memory write operation at the MTJ storage element by, during a single memory clock cycle : receiving a first value corresponding to a first logic value stored at the MTJ storage element ; receiving, from the MUX, a second value corresponding to a second logic value to be stored at the MTJ storage element by the memory write operation; comparing the first value to the second value ; and selectively writing the second logic value to the MTJ storage element in response to determining that the first value corresponding to the first logic value does not match the second value corresponding to the second logic value. during a single memory clock cycle : receiving a first value corresponding to a first logic value stored at the MTJ storage element ; receiving, from the MUX, a second value corresponding to a second logic value to be stored at the MTJ storage element by the memory write operation; comparing the first value to the second value ; and selectively writing the second logic value to the MTJ storage element in response to determining that the first value corresponding to the first logic value does not match the second value corresponding to the second logic value.
A rolling diaphragm for receiving a medical fluid therein, adapted for use with a plunger and a pressure jacket, the rolling diaphragm characterized by : a) a proximal end comprising a reinforced end wall having a plunger engagement portion protruding proximally from a central region of a ramp , b) a distal end having a discharge neck , and c) a sidewall extending between the proximal end and the distal end along a longitudinal axis, wherein at least a portion of at least one of the sidewall and the end wall has a non-uniform thickness, d) wherein at least a portion of the sidewall is flexible such that the sidewall rolls upon itself upon movement of the reinforced end wall such that an outer surface of the sidewall at a folding region is folded in a radially inward direction as the reinforced end wall is advanced from the proximal end to the distal end and e) wherein the outer surface of the sidewall unrolls as the folding region is unfolded in a radially outward direction as the reinforced end wall is retracted from the distal end to the proximal end . a) a proximal end comprising a reinforced end wall having a plunger engagement portion protruding proximally from a central region of a ramp , b) a distal end having a discharge neck , and c) a sidewall extending between the proximal end and the distal end along a longitudinal axis, wherein at least a portion of at least one of the sidewall and the end wall has a non-uniform thickness, d) wherein at least a portion of the sidewall is flexible such that the sidewall rolls upon itself upon movement of the reinforced end wall such that an outer surface of the sidewall at a folding region is folded in a radially inward direction as the reinforced end wall is advanced from the proximal end to the distal end and e) wherein the outer surface of the sidewall unrolls as the folding region is unfolded in a radially outward direction as the reinforced end wall is retracted from the distal end to the proximal end .
A method of isolation in a distributed storage system, the method comprising: receiving into non-transitory memory a corresponding transferred data amount between the non-transitory memory and each client in communication with the non-transitory memory, each client writing the corresponding transferred data amount to the non-transitory memory through remote direct memory access after every transfer of a threshold amount of data between the client and the non-transitory memory; reading, by a data processor in communication with the non-transitory memory, the corresponding transferred data amount in the non-transitory memory for each client; determining, by the data processor, a corresponding throttle data transfer rate for each client based on a bandwidth capacity for a memory host of the non-transitory memory; and writing, by the data processor, each corresponding throttle data transfer rate to the non-transitory memory accessible by a corresponding client through remote direct memory access, wherein each client reads the corresponding throttle data transfer rate for that client in the non-transitory memory through remote direct memory access each time the client writes the corresponding transferred data amount to the non-transitory memory, the client self-enforcing the corresponding throttle data transfer rate for subsequent data transfers between the client and the non-transitory memory. receiving into non-transitory memory a corresponding transferred data amount between the non-transitory memory and each client in communication with the non-transitory memory, each client writing the corresponding transferred data amount to the non-transitory memory through remote direct memory access after every transfer of a threshold amount of data between the client and the non-transitory memory; reading, by a data processor in communication with the non-transitory memory, the corresponding transferred data amount in the non-transitory memory for each client; determining, by the data processor, a corresponding throttle data transfer rate for each client based on a bandwidth capacity for a memory host of the non-transitory memory; and writing, by the data processor, each corresponding throttle data transfer rate to the non-transitory memory accessible by a corresponding client through remote direct memory access, wherein each client reads the corresponding throttle data transfer rate for that client in the non-transitory memory through remote direct memory access each time the client writes the corresponding transferred data amount to the non-transitory memory, the client self-enforcing the corresponding throttle data transfer rate for subsequent data transfers between the client and the non-transitory memory.
Injection moulding machine comprising a machine bed on which at least one mould clamping unit and one injection unit are mounted, wherein the machine bed comprises a carrier frame on which the mould clamping unit and the injection unit are arranged, wherein the carrier frame resting on support elements of the machine bed , characterized in that the carrier frame is a profile extending in a longitudinal direction (L).
A microbubble generator , comprising: an air dissolving tank , defining an air dissolving cavity therein, and having an inlet in an upper portion of the air dissolving tank and an outlet in a lower portion of the air dissolving tank , the inlet and outlet configured to allow water to flow in and out, the inlet being located above the outlet; a baffle , provided in the air dissolving tank , at least partially located between the inlet and the outlet in a horizontal direction, and provided with a gap and/or a through hole; and a cavitator , provided outside the air dissolving tank and connected with the outlet , or provided at the outlet , characterized in that the cavitator comprises: a cavitation casing , provided therein with a water cavity having a cavitation inlet and a cavitation outlet for water to flow in and out, the cavitation inlet being connected with the outlet of the air dissolving tank; and a cavitation ball , movably provided in the water cavity , wherein the water flowing in from the cavitation inlet is able to push the cavitation ball to block the cavitation outlet , and when the cavitation ball is blocked at the cavitation outlet , a Venturi channel is formed between the cavitation ball and an inner wall of the water cavity . an air dissolving tank , defining an air dissolving cavity therein, and having an inlet in an upper portion of the air dissolving tank and an outlet in a lower portion of the air dissolving tank , the inlet and outlet configured to allow water to flow in and out, the inlet being located above the outlet; a baffle , provided in the air dissolving tank , at least partially located between the inlet and the outlet in a horizontal direction, and provided with a gap and/or a through hole; and a cavitator , provided outside the air dissolving tank and connected with the outlet , or provided at the outlet , characterized in that the cavitator comprises: a cavitation casing , provided therein with a water cavity having a cavitation inlet and a cavitation outlet for water to flow in and out, the cavitation inlet being connected with the outlet of the air dissolving tank; and a cavitation ball , movably provided in the water cavity , wherein the water flowing in from the cavitation inlet is able to push the cavitation ball to block the cavitation outlet , and when the cavitation ball is blocked at the cavitation outlet , a Venturi channel is formed between the cavitation ball and an inner wall of the water cavity . a cavitation casing , provided therein with a water cavity having a cavitation inlet and a cavitation outlet for water to flow in and out, the cavitation inlet being connected with the outlet of the air dissolving tank; and a cavitation ball , movably provided in the water cavity , wherein the water flowing in from the cavitation inlet is able to push the cavitation ball to block the cavitation outlet , and when the cavitation ball is blocked at the cavitation outlet , a Venturi channel is formed between the cavitation ball and an inner wall of the water cavity .
A self-propelled operating machine , in particular a telehandler, equipped with stabilizers which comprise at least a front stabilizing unit , mounted on a chassis of said machine , which is movable on wheels and is fitted with a driver's cab for an operator (O), wherein said stabilizing unit comprises a supporting frame and two stabilizing arms , each of which includes a first segment hinged to said frame by means of a pin located at a lower side of said first segment ; wherein the above-mentioned first segment is also hinged at an end of a first linear actuator designed to rotate the first segment about the first pin to allow the lowering or the raising of the respective stabilizing arm ; wherein each first actuator is connected, by a second hinge , to the supporting structure and, through a third hinge , to the first segment of the respective arm ; wherein the first and the third hinges are positioned in two distinct points of the length of the first segment , the first hinge being closer to a proximal end of the first segment and the third hinge closer to a distal end thereof; wherein the stabilizing arms are movable between a raised position, in which they are distanced from the ground and lowered position in which they rest on the ground; characterized in that , in said raised position of the stabilizing arms , the first actuators are arranged oblique with respect to a plane parallel to the ground, so as to form with said plane an angle greater than zero and less than thirty-five degrees. wherein the above-mentioned first segment is also hinged at an end of a first linear actuator designed to rotate the first segment about the first pin to allow the lowering or the raising of the respective stabilizing arm ; wherein each first actuator is connected, by a second hinge , to the supporting structure and, through a third hinge , to the first segment of the respective arm ; wherein the first and the third hinges are positioned in two distinct points of the length of the first segment , the first hinge being closer to a proximal end of the first segment and the third hinge closer to a distal end thereof; wherein the stabilizing arms are movable between a raised position, in which they are distanced from the ground and lowered position in which they rest on the ground; characterized in that , in said raised position of the stabilizing arms , the first actuators are arranged oblique with respect to a plane parallel to the ground, so as to form with said plane an angle greater than zero and less than thirty-five degrees.
A token system for installation in a reverse vending machine which is configured to detect and identify characteristic features of empty beverage containers (10, 10', 10", 10′′′) and any return value related thereto, wherein the token system comprises: a token reader (7, 308, 356, 411, 411', 411", 411′′′) capable of reading a token when presented to the reader from outside of the reverse vending machine by a user, characterised in that the token is a personal token which a customer brings to the reverse vending machine and from which identity data is transferable to the reverse vending machine a processor for relating the return value to the personal token and for transferring directly or via a central computer installation to a rewarding unit or a check-out unit information related to the personal token and said return value in order to validate the personal token wherein the token is a reusable token, which is an optically readable token, an r.f. readable token or a magnetic stripe readable token. a token reader (7, 308, 356, 411, 411', 411", 411′′′) capable of reading a token when presented to the reader from outside of the reverse vending machine by a user, characterised in that the token is a personal token which a customer brings to the reverse vending machine and from which identity data is transferable to the reverse vending machine a processor for relating the return value to the personal token and for transferring directly or via a central computer installation to a rewarding unit or a check-out unit information related to the personal token and said return value in order to validate the personal token wherein the token is a reusable token, which is an optically readable token, an r.f. readable token or a magnetic stripe readable token.
System having a first food-slicing machine , in particular a high-performance slicer, for slicing blocks of food into slices of food, the first food-slicing machine having a first feed module (1.2) for feeding the blocks of food , a first slicing module (1.3) for slicing the blocks of food , a first transporting belt (1.4) for transporting the fed blocks of food from the first feed module (1.2) to the first slicing module (1.3), and a first longitudinal member (1.5) for spacing the first slicing module (1.3) apart from the first feed module (1.2), the system having a second food-slicing machine , in particular a high-performance slicer, for slicing blocks of food into slices of food, the second food-slicing machine having a second feed module (2.2) for feeding the blocks of food , a second slicing module (2.3) for slicing the blocks of food , a second transporting belt (2.4) for transporting the fed blocks of food from the second feed module (2.2) to the second slicing module (2.3), and a second longitudinal member (2.5) for spacing the second slicing module (2.3) apart from the second feed module (2.2), wherein the first feed module (1.2) and the second feed module (2.2) are identical and the first slicing module (1.3) and the second slicing module (2.3) are identical, characterized in that the first transporting belt (1.4) and the second transporting belt (2.4) are of different lengths and the first longitudinal member (1.5) and the second longitudinal member (2.5) are of different lengths for spacing the first feed module (1.2) apart from the first slicing module (1.3) and the second feed module (2.2) apart from the second slicing module (2.3) to different extents. the system having a second food-slicing machine , in particular a high-performance slicer, for slicing blocks of food into slices of food, the second food-slicing machine having a second feed module (2.2) for feeding the blocks of food , a second slicing module (2.3) for slicing the blocks of food , a second transporting belt (2.4) for transporting the fed blocks of food from the second feed module (2.2) to the second slicing module (2.3), and a second longitudinal member (2.5) for spacing the second slicing module (2.3) apart from the second feed module (2.2), wherein the first feed module (1.2) and the second feed module (2.2) are identical and the first slicing module (1.3) and the second slicing module (2.3) are identical, characterized in that the first transporting belt (1.4) and the second transporting belt (2.4) are of different lengths and the first longitudinal member (1.5) and the second longitudinal member (2.5) are of different lengths for spacing the first feed module (1.2) apart from the first slicing module (1.3) and the second feed module (2.2) apart from the second slicing module (2.3) to different extents.
A method of operating a sensor to detect an analyte in an environment, the sensor including a working electrode and circuitry in operative connection with the working electrode , the method comprising: performing a sensor interrogation cycle comprising applying electrical energy to the working electrode , thereby generating a non-faradaic current, measuring a response to the generation of the non-faradaic current to determine a state of the sensor , and actively controlling the circuitry to decrease an amount of time required to dissipate the non-faradaic current and return the sensor to a baseline output at which an analytic response of the sensor can be monitored to detect the analyte, characterized in that actively controlling the circuitry comprises decreasing a load resistance in electrical connection with the working electrode subsequent to generating the non-faradaic current.