mhurhangee/ep-ind-claims huggingface dataset:
Method for mixing a liquid in a liquid container, the method comprising the steps: a. receiving the liquid container by way of a gripper which is fastened by way of a flexible connecting element to an automatically movable transfer arm, wherein the gripper has a coupling hole; then b. displacing the gripper with the liquid container to a shaking device with a coupling pin which is movable about a vertical axis of rotation; then c. producing a connection between the gripper and the shaking device, wherein the connection is realized by insertion of the coupling pin of the shaking device into the coupling hole, which is provided on the gripper, in a direction coaxial with respect to the axis of rotation of the coupling pin; and then d. moving the coupling pin; characterized in that, after the insertion of the coupling pin of the shaking device into the coupling hole provided on the gripper in step c), the gripper or the shaking device is firstly displaced perpendicular to the axis of rotation of the movable coupling pin before the coupling pin is set in motion. a. receiving the liquid container by way of a gripper which is fastened by way of a flexible connecting element to an automatically movable transfer arm, wherein the gripper has a coupling hole; then b. displacing the gripper with the liquid container to a shaking device with a coupling pin which is movable about a vertical axis of rotation; then c. producing a connection between the gripper and the shaking device, wherein the connection is realized by insertion of the coupling pin of the shaking device into the coupling hole, which is provided on the gripper, in a direction coaxial with respect to the axis of rotation of the coupling pin; and then d. moving the coupling pin;
An information tracking system, comprising: a plurality of sources (S1, S2, S3, S4) that subscribe to a workflow management system; an other source (NS1, NS2) that is unaffiliated with the workflow management system; a registry database, including: pre-existing fields configured to store data received from one or more of the plurality of sources (S1, S2, S3, S4) or from the other source (NS1, NS2); and de novo fields configured to be generated as a result of a data collection event and configured to store data received from one or more of the plurality of sources (S1, S2, S3, S4) or from the other source (NS1, NS2); an engine configured to actively collect data from the plurality of sources (S1, S2, S3, S4) and from the other source (NS1, NS2); and a dynamically updatable user interface operatively connected to the registry database, the dynamically updatable user interface being configurable or re-configurable for a particular one of the plurality of sources (S1, S2, S3, S4) in response to the data collection event. a plurality of sources (S1, S2, S3, S4) that subscribe to a workflow management system; an other source (NS1, NS2) that is unaffiliated with the workflow management system; a registry database, including: pre-existing fields configured to store data received from one or more of the plurality of sources (S1, S2, S3, S4) or from the other source (NS1, NS2); and de novo fields configured to be generated as a result of a data collection event and configured to store data received from one or more of the plurality of sources (S1, S2, S3, S4) or from the other source (NS1, NS2); pre-existing fields configured to store data received from one or more of the plurality of sources (S1, S2, S3, S4) or from the other source (NS1, NS2); and de novo fields configured to be generated as a result of a data collection event and configured to store data received from one or more of the plurality of sources (S1, S2, S3, S4) or from the other source (NS1, NS2); an engine configured to actively collect data from the plurality of sources (S1, S2, S3, S4) and from the other source (NS1, NS2); and a dynamically updatable user interface operatively connected to the registry database, the dynamically updatable user interface being configurable or re-configurable for a particular one of the plurality of sources (S1, S2, S3, S4) in response to the data collection event.
Compressed air powering unit adapted to automatic supply a sterile solution to at least a vibrating handpiece or to a rotating turbine, wherein said air powering unit comprises: - a central body; - a compressed air conducting tube allowing air to flow from an outside air source to said central body; - an inflatable bag compression device adapted to compress a disposable bag, containing a sterile solution at its inside, thus allowing the evacuation of such a sterile solution from said disposable bag; - an air hose allowing an adjusted low pressure and constant air to flow from said central body to said inflatable bag compression device for inflating said inflatable bag compression device; - a support for holding said inflatable bag compression device; - a pedal activator for activating/deactivating an air flow characterized in that the compressed air powering unit further comprises: - at least a first double pneumatic cord (8a, 8b) allowing the air incoming flow toward said pedal activator and the air coming back from it to said central body; - a second pneumatic cord allowing the air flow from said central body to said vibrating handpiece or to said rotating turbine; - a disposable sterile infusion tube allowing said sterile solution to flow from said disposable bag to said vibrating handpiece or to said rotating turbine; wherein the air flow generated by the activation of said pedal activator simultaneously allows: - delivering said sterile solution to said vibrating handpiece or to said rotating turbine, and - activating said vibrating handpiece or said rotating turbine. - a central body; - a compressed air conducting tube allowing air to flow from an outside air source to said central body; - an inflatable bag compression device adapted to compress a disposable bag, containing a sterile solution at its inside, thus allowing the evacuation of such a sterile solution from said disposable bag; - an air hose allowing an adjusted low pressure and constant air to flow from said central body to said inflatable bag compression device for inflating said inflatable bag compression device; - a support for holding said inflatable bag compression device; - a pedal activator for activating/deactivating an air flow characterized in that the compressed air powering unit further comprises: - at least a first double pneumatic cord (8a, 8b) allowing the air incoming flow toward said pedal activator and the air coming back from it to said central body; - a second pneumatic cord allowing the air flow from said central body to said vibrating handpiece or to said rotating turbine; - a disposable sterile infusion tube allowing said sterile solution to flow from said disposable bag to said vibrating handpiece or to said rotating turbine; - delivering said sterile solution to said vibrating handpiece or to said rotating turbine, and - activating said vibrating handpiece or said rotating turbine.
A computer-implemented control method for controlling whether or not a portion of cryptocurrency is transferred from one party to another via a blockchain, and comprising the steps: providing a blockchain Transaction comprising a redeem script for an output, wherein the redeem script comprises: i) a plurality of input parameters, wherein each input parameter is a public key and is uniquely associated with a potential state of at least one data source supplied to an unlocking script of a further transaction arranged to spend the output; and wherein one of the input parameters is a target output parameter; ii) logic arranged to provide a result based on: - a calculation performed on the input parameters provided by an unlocking script so as to provide an interim result; and - a comparison of a target output parameter via the unlocking script against the interim result; and attempting to spend the transaction output more than once, each attempt supplying a different target output parameter, wherein the potential state of the at least one data source is associated with a value determined by a sensor. providing a blockchain Transaction comprising a redeem script for an output, wherein the redeem script comprises: i) a plurality of input parameters, wherein each input parameter is a public key and is uniquely associated with a potential state of at least one data source supplied to an unlocking script of a further transaction arranged to spend the output; and wherein one of the input parameters is a target output parameter; ii) logic arranged to provide a result based on: - a calculation performed on the input parameters provided by an unlocking script so as to provide an interim result; and - a comparison of a target output parameter via the unlocking script against the interim result; and attempting to spend the transaction output more than once, each attempt supplying a different target output parameter, wherein the potential state of the at least one data source is associated with a value determined by a sensor. i) a plurality of input parameters, wherein each input parameter is a public key and is uniquely associated with a potential state of at least one data source supplied to an unlocking script of a further transaction arranged to spend the output; and wherein one of the input parameters is a target output parameter; ii) logic arranged to provide a result based on: - a calculation performed on the input parameters provided by an unlocking script so as to provide an interim result; and - a comparison of a target output parameter via the unlocking script against the interim result; - a calculation performed on the input parameters provided by an unlocking script so as to provide an interim result; and - a comparison of a target output parameter via the unlocking script against the interim result;
A process for preparing an X/hard carbon composite material comprising particles of X dispersed on the surface of a hard carbon core, the process comprising the steps: a) forming a mixture comprising i) one or more hard carbon-containing starting materials, ii) one or more starting materials which comprise one or more of the component elements of X, and optionally iii) one or more secondary carbon-containing materials; and b) heating the resulting mixture at 100°C to 1500°C to yield the material comprising the X/hard carbon composite; wherein X comprises one or more component elements selected from antimony, tin, phosphorus, sulfur, boron, aluminium, gallium, indium, germanium, lead, arsenic, bismuth, titanium, molybdenum, selenium, tellurium and cobalt; wherein X is present in an amount of at least 5% by weight of the material comprising the X/hard carbon composite; wherein the mixture in step a) is either formed by: mixing one or more hard carbon-containing starting materials, one or more starting materials which comprise one or more of the component elements of X, optionally one or more secondary carbon-containing materials, together in their solid form, and further optionally in the presence of a mixing liquid, or by dissolving the one or more starting materials which comprise one or more of the component elements of X and dispersing the one or more hard carbon-containing starting materials and optionally the one or more secondary carbon-containing materials, in a liquid; and wherein step b) is performed substantially in the absence of a solvent or other liquid. a) forming a mixture comprising i) one or more hard carbon-containing starting materials, ii) one or more starting materials which comprise one or more of the component elements of X, and optionally iii) one or more secondary carbon-containing materials; and b) heating the resulting mixture at 100°C to 1500°C to yield the material comprising the X/hard carbon composite; mixing one or more hard carbon-containing starting materials, one or more starting materials which comprise one or more of the component elements of X, optionally one or more secondary carbon-containing materials, together in their solid form, and further optionally in the presence of a mixing liquid, or by dissolving the one or more starting materials which comprise one or more of the component elements of X and dispersing the one or more hard carbon-containing starting materials and optionally the one or more secondary carbon-containing materials, in a liquid; and wherein step b) is performed substantially in the absence of a solvent or other liquid.
A water jacket for a cylinder head, comprising: an upper body disposed at an upper part of the cylinder head inside the cylinder head, a coolant flowing through the upper body; a lower body disposed under the upper body inside the cylinder head, the coolant flowing through the lower body; and a connector disposed corresponding to a position of an exhaust valve between the upper body and the lower body and integrally connected to the upper body and the lower body, wherein at least one penetration hole is formed in the connector along a length direction, and wherein the penetration hole is respectively formed between each combustion chamber of an engine and at both ends in the length direction of the connector to prevent the coolant inflowing from the lower body from directly inflowing to the upper body, characterized in that the lower body includes: a plurality of inflow protrusions formed for each combustion chamber along the length direction at a lower surface corresponding to a position of the connector; and a plurality of exhaust protrusions formed for each combustion chamber along the length direction at a position facing the inflow protrusion corresponding to a position of an intake valve. an upper body disposed at an upper part of the cylinder head inside the cylinder head, a coolant flowing through the upper body; a lower body disposed under the upper body inside the cylinder head, the coolant flowing through the lower body; and a connector disposed corresponding to a position of an exhaust valve between the upper body and the lower body and integrally connected to the upper body and the lower body, wherein at least one penetration hole is formed in the connector along a length direction, and wherein the penetration hole is respectively formed between each combustion chamber of an engine and at both ends in the length direction of the connector to prevent the coolant inflowing from the lower body from directly inflowing to the upper body, characterized in that the lower body includes: a plurality of inflow protrusions formed for each combustion chamber along the length direction at a lower surface corresponding to a position of the connector; and a plurality of exhaust protrusions formed for each combustion chamber along the length direction at a position facing the inflow protrusion corresponding to a position of an intake valve. a plurality of inflow protrusions formed for each combustion chamber along the length direction at a lower surface corresponding to a position of the connector; and a plurality of exhaust protrusions formed for each combustion chamber along the length direction at a position facing the inflow protrusion corresponding to a position of an intake valve.
A molded article including post-consumer recycled material, comprising: a container including: a base; a sidewall (34, 36) connected to the base and extending therefrom; and an opening, wherein the container is devoid of virgin polyethylene terephthalate characterised in that the container consists of (i) 100% post-consumer recycled polyethylene terephthalate having an intrinsic viscosity of less than 0.8 deciliters per gram, and optionally (ii) an additive selected from a toner, a colorant and a slip agent. wherein the container has a mass to internal volume ratio of between 0.04 grams per cubic centimeter and 0.06 grams per cubic centimeter, and wherein a value of ΔE*ab is less than 3.5 for the container with respect to a reference container having the same dimensions as the container, the reference container differing from the container only in polymer composition, wherein said polymer composition consists of 50% virgin polyethylene terephthalate and 50% post-consumer recycled polyethylene terephthalate. a container including: a base; a sidewall (34, 36) connected to the base and extending therefrom; and an opening, a base; a sidewall (34, 36) connected to the base and extending therefrom; and an opening, wherein the container is devoid of virgin polyethylene terephthalate characterised in that the container consists of (i) 100% post-consumer recycled polyethylene terephthalate having an intrinsic viscosity of less than 0.8 deciliters per gram, and optionally (ii) an additive selected from a toner, a colorant and a slip agent. wherein the container has a mass to internal volume ratio of between 0.04 grams per cubic centimeter and 0.06 grams per cubic centimeter, and wherein a value of ΔE*ab is less than 3.5 for the container with respect to a reference container having the same dimensions as the container, the reference container differing from the container only in polymer composition, wherein said polymer composition consists of 50% virgin polyethylene terephthalate and 50% post-consumer recycled polyethylene terephthalate.
A fluid cooling system comprising: a volume of heat transfer fluid held in a first tank; wherein the volume of heat transfer fluid has a surface area; means for permitting or forcing a volume of air across the surface area; characterised in that the volume of air causes the temperature of said heat transfer fluid in the first tank to be lowered to or maintained at approximately the required temperature by evaporative means and become a cooled fluid; wherein the cooled fluid is transferred from the first tank to a heat exchanger in a process or location; and the cooled fluid is used to cool the location, by absorbing heat at the heat exchanger; wherein the cooling system further comprises a second tank to which a return fluid from the process or location is transferred; and wherein the wet bulb temperature of the volume of air being approximately at or less than a required temperature of the heat transfer fluid sufficient to remove thermal energy from the process or location. means for permitting or forcing a volume of air across the surface area; characterised in that the volume of air causes the temperature of said heat transfer fluid in the first tank to be lowered to or maintained at approximately the required temperature by evaporative means and become a cooled fluid; wherein the cooled fluid is transferred from the first tank to a heat exchanger in a process or location; and the cooled fluid is used to cool the location, by absorbing heat at the heat exchanger; wherein the cooling system further comprises a second tank to which a return fluid from the process or location is transferred; and wherein the wet bulb temperature of the volume of air being approximately at or less than a required temperature of the heat transfer fluid sufficient to remove thermal energy from the process or location.
A method for preparing a beverage through a capsule inserted in a beverage machine, the capsule comprising an enclosure containing one or more beverage ingredients, wherein a brewing fluid is introduced in the enclosure to brew said one or more beverage ingredients, wherein a discharge wall (3, 300, 310, 320, 330) is placed in association with the enclosure and the capsule is positioned in the machine during beverage preparation so that the discharge wall (3, 300, 310, 320, 330) is vertically oriented, wherein the discharge wall (3, 300, 310, 320, 330) comprises discharge means (100, 301, 311, 321, 331) which restrain the brewed liquid from being discharged from the capsule, or limit the liquid flow, in case the pressure inside the enclosure is below a predetermined value, and the discharge means (100, 301, 311, 321, 331) enable the delivery of the brewed liquid in case the pressure exceeds said predetermined value, wherein the discharge means comprises at least one discharge opening comprising a hole with fixed diameter sufficiently small to create a watertight wall when brewing fluid is introduced without pressure, and to let the brewed liquid flow there through when the pressure exceeds the predetermined value, characterised in that the discharge means enable the submersion of the beverage ingredients before the predetermined pressure value has been reached and the brewed beverage is forced to exit the enclosure via the discharge means.
Apparatus for the application of topical negative pressure to a patient comprising: a dressing for covering a wound and for sealing with surrounding sound tissue to create a sealed cavity or void over the wound; an aspiration conduit sealingly attached to the dressing and having a distal end remote from the dressing; a waste canister for collecting and holding wound exudates prior to disposal wherein the canister comprises a filter and wherein the aspiration conduit is attached at its distal end to the waste canister at an inlet port or connector; a power, control and aspiration initiating and sustaining device associated with the waste canister wherein the waste canister is sited between the dressing and the device and wherein the device is configured to aspirate the dressing via the canister; and characterized in that the apparatus comprises a pressure sensor downstream of the canister filter and between the canister filter and the dressing. a dressing for covering a wound and for sealing with surrounding sound tissue to create a sealed cavity or void over the wound; an aspiration conduit sealingly attached to the dressing and having a distal end remote from the dressing; a waste canister for collecting and holding wound exudates prior to disposal wherein the canister comprises a filter and wherein the aspiration conduit is attached at its distal end to the waste canister at an inlet port or connector; a power, control and aspiration initiating and sustaining device associated with the waste canister wherein the waste canister is sited between the dressing and the device and wherein the device is configured to aspirate the dressing via the canister; and characterized in that the apparatus comprises a pressure sensor downstream of the canister filter and between the canister filter and the dressing.