mhurhangee/ep-ind-claims huggingface dataset:
A lance for a side-submerged combustion smelting metallurgical furnace, comprising: an outer injection pipe internally defining a combustion-supporting gas inlet, a combustion-supporting gas outlet, and an insertion port; an inner injection pipe having a medium inlet, a medium injection port, and a medium clearing port, a blocking member mounted to the inner injection pipe to open or close the medium clearing port, characterized in that the lance further comprises an insertion self-locking member having a self-locking and closing function, and mounted at the insertion port of the outer injection pipe; and the inner injection pipe is detachably inserted into the insertion self-locking member, an end of the inner injection pipe provided with the medium injection port extends into the outer injection pipe through the insertion port, and when the inner injection pipe is disengaged from the insertion self-locking member, the insertion self-locking member is self-locked and closed to block off the insertion port, wherein the insertion self-locking member comprises: a first body internally defining a connecting channel, through which the inner injection pipe passes and is communicated with the insertion port; and a first self-locking member provided within the first body and movable between a closed position where the connecting channel is closed and an open position where the connecting channel is open. an outer injection pipe internally defining a combustion-supporting gas inlet, a combustion-supporting gas outlet, and an insertion port; an inner injection pipe having a medium inlet, a medium injection port, and a medium clearing port, a blocking member mounted to the inner injection pipe to open or close the medium clearing port, characterized in that the lance further comprises an insertion self-locking member having a self-locking and closing function, and mounted at the insertion port of the outer injection pipe; and the inner injection pipe is detachably inserted into the insertion self-locking member, an end of the inner injection pipe provided with the medium injection port extends into the outer injection pipe through the insertion port, and when the inner injection pipe is disengaged from the insertion self-locking member, the insertion self-locking member is self-locked and closed to block off the insertion port, wherein the insertion self-locking member comprises: a first body internally defining a connecting channel, through which the inner injection pipe passes and is communicated with the insertion port; and a first self-locking member provided within the first body and movable between a closed position where the connecting channel is closed and an open position where the connecting channel is open. a first body internally defining a connecting channel, through which the inner injection pipe passes and is communicated with the insertion port; and a first self-locking member provided within the first body and movable between a closed position where the connecting channel is closed and an open position where the connecting channel is open.
Protein containing two peptide domains, named K1 a and K1 b respectively, each of said peptide domains K1 a and K1 b comprising a K1 peptide domain of the Hepatocyte Growth Factor /Scatter Factor, said K1 peptide domain consisting of a sequence with at least 80% identity, preferably at least 90% identity, to SEQ ID NO: 1, said protein being able to induce activation of the tyrosine kinase receptor MET, with the proviso that said protein does not comprise the N-terminal domain of HGF/SF.
An overload detection device for detecting an overload condition in a DC system comprising a DC voltage source and several electrical devices (208, 209, 210) electrically connected to the DC voltage source, the overload detection device comprising: - an overload detection unit for detecting the overload condition, - a reducing unit for reducing the power consumed by an electrical device of the several electrical devices (208, 209, 210), if the overload detection unit detects the overload condition, characterized in that the reducing unit is adapted to prevent the electrical devices (208, 209, 210) one after the other from consuming power from the DC voltage source in accordance with an order defined by their respective loads, as long as an overload condition is detected. - an overload detection unit for detecting the overload condition, - a reducing unit for reducing the power consumed by an electrical device of the several electrical devices (208, 209, 210), if the overload detection unit detects the overload condition,
A method for producing a tyrosinase inhibitor, comprising the steps of: contacting a live earthworm with a chloride(s) of at least one metal selected from the group consisting of potassium, sodium, magnesium and calcium, then contacting the live earthworm with hydroxycarboxylic acid powder, diluting the resulting mixture with water to adjust the pH to 2 to 5 and then leaving the resulting dilution to stand for 3 to 180 minutes, or contacting the live earthworm with an aqueous solution of hydroxycarboxylic acid having a pH of 2 to 5 and then leaving the resulting mixture to stand for 3 to 180 minutes; followed by washing the live earthworm with water, grinding the washed earthworm, and then freeze-drying the obtained ground product. contacting a live earthworm with a chloride(s) of at least one metal selected from the group consisting of potassium, sodium, magnesium and calcium, then contacting the live earthworm with hydroxycarboxylic acid powder, diluting the resulting mixture with water to adjust the pH to 2 to 5 and then leaving the resulting dilution to stand for 3 to 180 minutes, or contacting the live earthworm with an aqueous solution of hydroxycarboxylic acid having a pH of 2 to 5 and then leaving the resulting mixture to stand for 3 to 180 minutes; followed by washing the live earthworm with water, grinding the washed earthworm, and then freeze-drying the obtained ground product.
A method of securing two components (34a, 34b) to each other, wherein a first component is a first inlet duct leg of an inlet duct assembly of a rotary winged aircraft and a second component is a second inlet duct leg of the inlet duct assembly; the method comprising: locating a mounting strip at a second mounting flange of the second component, the mounting strip slidably affixed to the second component and including: a strip opening; and a tightening ramp located at the strip opening; locating the first inlet duct leg at an engine inlet of the rotary winged aircraft, the first inlet duct leg including a first mounting flange; and a fastener extending from the first mounting flange, the fastener having a fastener head disposed at preselected distance from the first mounting flange; locating the second inlet duct leg at the engine inlet such that the second mounting flange of the second inlet duct leg abuts the first mounting flange, the second inlet duct leg including the slidably located mounting strip having: the strip opening, the fastener extending therethrough; and the tightening ramp having an increasing height in one direction; and sliding the mounting strip to increase tension on the fastener via an increasing height of the tightening ramp under a fastener head of the fastener, thereby securing the second mounting flange to the first mounting flange. locating a mounting strip at a second mounting flange of the second component, the mounting strip slidably affixed to the second component and including: a strip opening; and a tightening ramp located at the strip opening; a strip opening; and a tightening ramp located at the strip opening; locating the first inlet duct leg at an engine inlet of the rotary winged aircraft, the first inlet duct leg including a first mounting flange; and a fastener extending from the first mounting flange, the fastener having a fastener head disposed at preselected distance from the first mounting flange; a first mounting flange; and a fastener extending from the first mounting flange, the fastener having a fastener head disposed at preselected distance from the first mounting flange; locating the second inlet duct leg at the engine inlet such that the second mounting flange of the second inlet duct leg abuts the first mounting flange, the second inlet duct leg including the slidably located mounting strip having: the strip opening, the fastener extending therethrough; and the tightening ramp having an increasing height in one direction; and the strip opening, the fastener extending therethrough; and the tightening ramp having an increasing height in one direction; and sliding the mounting strip to increase tension on the fastener via an increasing height of the tightening ramp under a fastener head of the fastener, thereby securing the second mounting flange to the first mounting flange.
A computer-implemented method comprising: receiving, by a first server of a secure multi-party computation system and from an application on a user device, a request for a digital component; parsing, by the first server, the request into two or more distinct sub-requests; transmitting, by the first server of the secure MPC system, each of the two or more distinct sub-requests to a different server; receiving, by the first server and from a separate server in response to transmitting the two or more distinct sub-requests, a first set of candidate selection values; performing, by the first server in collaboration with one or more second servers of the MPC system, a selection process to generate a selection result for a winning digital component comprising: merging, by the first server, the first set of candidate selection values and a set of cached selection values to create a final set of candidate selection values; sorting, by the first server, the final set of candidate selection values according to the values of the candidate selection values; and applying, by the first server, each rule of a set of two or more selection rules; and transmitting, by the first server in collaboration with the one or more second servers and to the user device, the selection result for the winning digital component. receiving, by a first server of a secure multi-party computation system and from an application on a user device, a request for a digital component; parsing, by the first server, the request into two or more distinct sub-requests; transmitting, by the first server of the secure MPC system, each of the two or more distinct sub-requests to a different server; receiving, by the first server and from a separate server in response to transmitting the two or more distinct sub-requests, a first set of candidate selection values; performing, by the first server in collaboration with one or more second servers of the MPC system, a selection process to generate a selection result for a winning digital component comprising: merging, by the first server, the first set of candidate selection values and a set of cached selection values to create a final set of candidate selection values; sorting, by the first server, the final set of candidate selection values according to the values of the candidate selection values; and applying, by the first server, each rule of a set of two or more selection rules; and transmitting, by the first server in collaboration with the one or more second servers and to the user device, the selection result for the winning digital component. merging, by the first server, the first set of candidate selection values and a set of cached selection values to create a final set of candidate selection values; sorting, by the first server, the final set of candidate selection values according to the values of the candidate selection values; and applying, by the first server, each rule of a set of two or more selection rules; and transmitting, by the first server in collaboration with the one or more second servers and to the user device, the selection result for the winning digital component.
An implantable medical device comprising: a sensing circuit configured to receive a cardiac signal comprising far-field atrial events; a therapy delivery circuit configured to deliver ventricular pacing pulses via electrodes coupled to the therapy delivery circuit; and a control circuit configured to: control the therapy delivery circuit to deliver the ventricular pacing pulses in an atrial-synchronized pacing mode; during the atrial synchronized pacing mode, determine atrial cycle lengths between the far-field atrial events sensed from the cardiac signal; determine a difference between two atrial cycle lengths of the atrial cycle lengths; determine, based on the difference being greater than a cycle length change threshold, a cycle length change between the two atrial cycle lengths; after determining the cycle length change, determine if first pacing mode switching criteria is satisfied; and in response to determining that the first pacing mode switching criteria is satisfied, switch from the atrial-synchronized ventricular pacing mode to an atrial-asynchronous pacing mode for controlling the therapy delivery circuit in delivering the ventricular pacing pulses. a sensing circuit configured to receive a cardiac signal comprising far-field atrial events; a therapy delivery circuit configured to deliver ventricular pacing pulses via electrodes coupled to the therapy delivery circuit; and a control circuit configured to: control the therapy delivery circuit to deliver the ventricular pacing pulses in an atrial-synchronized pacing mode; during the atrial synchronized pacing mode, determine atrial cycle lengths between the far-field atrial events sensed from the cardiac signal; determine a difference between two atrial cycle lengths of the atrial cycle lengths; determine, based on the difference being greater than a cycle length change threshold, a cycle length change between the two atrial cycle lengths; after determining the cycle length change, determine if first pacing mode switching criteria is satisfied; and in response to determining that the first pacing mode switching criteria is satisfied, switch from the atrial-synchronized ventricular pacing mode to an atrial-asynchronous pacing mode for controlling the therapy delivery circuit in delivering the ventricular pacing pulses. control the therapy delivery circuit to deliver the ventricular pacing pulses in an atrial-synchronized pacing mode; during the atrial synchronized pacing mode, determine atrial cycle lengths between the far-field atrial events sensed from the cardiac signal; determine a difference between two atrial cycle lengths of the atrial cycle lengths; determine, based on the difference being greater than a cycle length change threshold, a cycle length change between the two atrial cycle lengths; after determining the cycle length change, determine if first pacing mode switching criteria is satisfied; and in response to determining that the first pacing mode switching criteria is satisfied, switch from the atrial-synchronized ventricular pacing mode to an atrial-asynchronous pacing mode for controlling the therapy delivery circuit in delivering the ventricular pacing pulses.
A headgear assembly for stabilizing and positioning a respiratory mask assembly on a patient's head, comprising: a pair of side straps; at least two rear straps; at least one of the pair of side straps and at least two rear straps having a flexible strap, wherein the pair of side straps comprise an upper side strap and a lower side strap and wherein the at least two rear straps comprise a curved upper strap and a lower strap; an intermediate strap arrangement between the curved upper strap and the lower strap, said intermediate strap arrangement having a pair of upper straps, a pair of lower straps, an a cross-bar strap; and a stiffener positioned between the at least one flexible strap and another of the pair of side straps and at least two rear straps, the stiffener being structured to maintain the at least one flexible strap in correct relative position on the patient's head in use, said stiffener attached to the intermediate strap arrangement. a pair of side straps; at least two rear straps; at least one of the pair of side straps and at least two rear straps having a flexible strap, wherein the pair of side straps comprise an upper side strap and a lower side strap and wherein the at least two rear straps comprise a curved upper strap and a lower strap; an intermediate strap arrangement between the curved upper strap and the lower strap, said intermediate strap arrangement having a pair of upper straps, a pair of lower straps, an a cross-bar strap; and a stiffener positioned between the at least one flexible strap and another of the pair of side straps and at least two rear straps, the stiffener being structured to maintain the at least one flexible strap in correct relative position on the patient's head in use, said stiffener attached to the intermediate strap arrangement.
Domestic appliance for food processing, having a container, wherein the container has a handle, a circumferential outer side wall and at least one opening on the top, wherein the container has at least one fastening element integral with the side wall, characterised in that the fastening element is a hook and extends outwards from the side wall in a first direction and extends substantially parallel to the side wall in a second direction, wherein the handle enters into a form-locking connection with the container via the at least one fastening element, characterised in that the domestic appliance has a housing, the housing further comprising: an electrically operated active element, a safety device which is arranged in the circuit for the current supply to the active element and only closes the circuit when the safety device is actuated, a base, wherein the base is designed to receive the container, a lid, wherein the lid is designed to close the first opening of the container, wherein the handle substantially extends over the entire height of the container and has a cavity, wherein a safety element is arranged in the cavity, wherein the safety element is arranged in such a way that it actuates the safety device when the container is closed with the lid. wherein the container has at least one fastening element integral with the side wall, characterised in that the fastening element is a hook and extends outwards from the side wall in a first direction and extends substantially parallel to the side wall in a second direction, wherein the handle enters into a form-locking connection with the container via the at least one fastening element, characterised in that the domestic appliance has a housing, the housing further comprising: an electrically operated active element, a safety device which is arranged in the circuit for the current supply to the active element and only closes the circuit when the safety device is actuated, a base, wherein the base is designed to receive the container, a lid, wherein the lid is designed to close the first opening of the container, wherein the handle substantially extends over the entire height of the container and has a cavity, wherein a safety element is arranged in the cavity, wherein the safety element is arranged in such a way that it actuates the safety device when the container is closed with the lid. an electrically operated active element, a safety device which is arranged in the circuit for the current supply to the active element and only closes the circuit when the safety device is actuated, a base, wherein the base is designed to receive the container, a lid, wherein the lid is designed to close the first opening of the container, wherein the handle substantially extends over the entire height of the container and has a cavity, wherein a safety element is arranged in the cavity, wherein the safety element is arranged in such a way that it actuates the safety device when the container is closed with the lid.
A method comprising: receiving, at a user equipment, an update to an application stored in a secure memory device at the user equipment; sending, when at least one device connects to a group network including the at least one device and the user equipment, a notification to announce the update being available at the secure memory device at the user equipment, wherein the notification is sent securely to the at least one device; receiving, at the user equipment, the notification from the at least one device; and providing, by the user equipment, the update securely to the at least one device from which the notification has been received, when the at least one device connects to the group network. receiving, at a user equipment, an update to an application stored in a secure memory device at the user equipment; sending, when at least one device connects to a group network including the at least one device and the user equipment, a notification to announce the update being available at the secure memory device at the user equipment, wherein the notification is sent securely to the at least one device; receiving, at the user equipment, the notification from the at least one device; and providing, by the user equipment, the update securely to the at least one device from which the notification has been received, when the at least one device connects to the group network.
A communication method performed by a first network device, the method comprising the steps of: • receiving (S 603) a first packet, wherein the first packet comprises a first segment identifier and a second segment identifier; • if the first segment identifier is unavailable, obtaining (S 605) the second segment identifier based on the first segment identifier, wherein that the first segment identifier is unavailable means: ∘ that there is a failure of a network device corresponding to the first segment identifier, or ∘ there is a failure of a link to the network device, or ∘ there is an error of the first segment identifier; • updating (S 606) a destination address in the first packet with the second segment identifier, to generate a second packet; and • processing (S 607) the second packet based on the second segment identifier. • receiving (S 603) a first packet, wherein the first packet comprises a first segment identifier and a second segment identifier; • if the first segment identifier is unavailable, obtaining (S 605) the second segment identifier based on the first segment identifier, wherein that the first segment identifier is unavailable means: ∘ that there is a failure of a network device corresponding to the first segment identifier, or ∘ there is a failure of a link to the network device, or ∘ there is an error of the first segment identifier; ∘ that there is a failure of a network device corresponding to the first segment identifier, or ∘ there is a failure of a link to the network device, or ∘ there is an error of the first segment identifier; • updating (S 606) a destination address in the first packet with the second segment identifier, to generate a second packet; and • processing (S 607) the second packet based on the second segment identifier.