mhurhangee/ep-ind-claims huggingface dataset:
A medical device (1300A, 1300B, 1300C, 1500A, 1500B, 1500C), comprising: a valve set including a primary control valve, an air input valve, and an atmospheric valve, the primary control valve comprising a valve body (1350, 1550) with an outer surface (1351, 1551) and one or more channels configured to control flow between a water input channel, a water output channel, and a balloon channel of a valve well, the air input valve configured to control flow through an air input channel of the valve well, and the atmospheric valve configured to control flow through an atmospheric channel; a valve interface mechanism operable between a first state, a second state, a third state, and a fourth state, the first state comprising the valve set configured to place the air input channel in fluid communication with the atmospheric channel, the second state comprising the valve set configured to place the air input channel in fluid communication with the air output channel, the third state comprising the valve set configured to place the water input channel in fluid communication with the water output channel, and the fourth state comprising the valve set configured to place the water input channel in fluid communication with the balloon channel, the one or more channels comprising one or more manifold channels (1352; 1552-1, 1552-2, 1552-3) through the valve body (1350, 1550) and the outer surface (1351, 1551) of the valve body (1350, 1550) comprising a plurality of manifold ports, wherein the manifold ports are in fluid communication via the one or more manifold channels (1352; 1552-1, 1552-2, 1552-3). a valve set including a primary control valve, an air input valve, and an atmospheric valve, the primary control valve comprising a valve body (1350, 1550) with an outer surface (1351, 1551) and one or more channels configured to control flow between a water input channel, a water output channel, and a balloon channel of a valve well, the air input valve configured to control flow through an air input channel of the valve well, and the atmospheric valve configured to control flow through an atmospheric channel; a valve interface mechanism operable between a first state, a second state, a third state, and a fourth state, the first state comprising the valve set configured to place the air input channel in fluid communication with the atmospheric channel, the second state comprising the valve set configured to place the air input channel in fluid communication with the air output channel, the third state comprising the valve set configured to place the water input channel in fluid communication with the water output channel, and the fourth state comprising the valve set configured to place the water input channel in fluid communication with the balloon channel, the one or more channels comprising one or more manifold channels (1352; 1552-1, 1552-2, 1552-3) through the valve body (1350, 1550) and the outer surface (1351, 1551) of the valve body (1350, 1550) comprising a plurality of manifold ports, wherein the manifold ports are in fluid communication via the one or more manifold channels (1352; 1552-1, 1552-2, 1552-3).
Composition comprising a buffered lactic acid having a pH within the range of from 3.0 to 6.5, characterized in that the composition is a lubricant composition and suitable for contacting mucous membrane and/or skin and that the composition has a water activity of from 0.10 to 0.50, wherein the desired water activity has been obtained by drying.
A control method of a motor provided in a vehicle for driving the vehicle and rendering a braking effect by performing power generation using a kinetic energy of the vehicle, comprising: detecting a depression amount of an accelerator pedal provided in the vehicle; detecting a vehicle running speed; and controlling the motor according to a target vehicle drive force (tFw) calculated on the bases of the depression amount and the vehicle speed; characterized by: calculating a target vehicle drive force basic value (tFwB) on the basis of the depression amount and the vehicle speed; calculating a correction amount (tFwC) on the basis of a variation (ΔVSP) in the vehicle running speed when the depression amount is zero (B62, B63, S2, S13, S14); and calculating the the target vehicle drive force (tFw) by adding the correction amount (tFwC) to the target vehicle drive force basic value (tFwB); wherein the correction amount (tFwC) is a value of zero when the variation (ΔVSP) is smaller than a predetermined variation (tΔVSP) whereas the correction amount (tFwC) takes a negative value, an absolute value of which increases as the variation (ΔVSP) increases, when the variation (ΔVSP) is not smaller than the predetermined variation (tΔVSP); and the predetermined variation (tΔVSP) is a value that decreases as the vehicle speed increases. detecting a depression amount of an accelerator pedal provided in the vehicle; detecting a vehicle running speed; and controlling the motor according to a target vehicle drive force (tFw) calculated on the bases of the depression amount and the vehicle speed; characterized by: calculating a target vehicle drive force basic value (tFwB) on the basis of the depression amount and the vehicle speed; calculating a correction amount (tFwC) on the basis of a variation (ΔVSP) in the vehicle running speed when the depression amount is zero (B62, B63, S2, S13, S14); and calculating the the target vehicle drive force (tFw) by adding the correction amount (tFwC) to the target vehicle drive force basic value (tFwB); calculating a target vehicle drive force basic value (tFwB) on the basis of the depression amount and the vehicle speed; calculating a correction amount (tFwC) on the basis of a variation (ΔVSP) in the vehicle running speed when the depression amount is zero (B62, B63, S2, S13, S14); and calculating the the target vehicle drive force (tFw) by adding the correction amount (tFwC) to the target vehicle drive force basic value (tFwB); wherein the correction amount (tFwC) is a value of zero when the variation (ΔVSP) is smaller than a predetermined variation (tΔVSP) whereas the correction amount (tFwC) takes a negative value, an absolute value of which increases as the variation (ΔVSP) increases, when the variation (ΔVSP) is not smaller than the predetermined variation (tΔVSP); and the predetermined variation (tΔVSP) is a value that decreases as the vehicle speed increases.
An optical device for measurement, comprising: an entrance unit to allow light from an object to be measured to enter; a photoelectric converter to convert received light into an electrical signal; an optical guide to guide the light entering through the entrance unit to the photoelectric converter; and a first electronic component and a second electronic component disposed around an optical axis of the optical guide and displaced from each other in a circumferential direction; wherein the optical guide includes: an optical fiber to propagate light; and a protective member disposed to cover the optical fiber and protect the optical fiber; wherein an air layer is formed between the optical fiber and the protective member; characterized in that the first electronic component is a controller to control measurement operation by the optical device for measurement, and the second electronic component is a power supply to transform externally supplied electric power; wherein the controller and the power supply are arranged opposite to each other with the optical fiber interposed therebetween. an entrance unit to allow light from an object to be measured to enter; a photoelectric converter to convert received light into an electrical signal; an optical guide to guide the light entering through the entrance unit to the photoelectric converter; and a first electronic component and a second electronic component disposed around an optical axis of the optical guide and displaced from each other in a circumferential direction; wherein the optical guide includes: an optical fiber to propagate light; and a protective member disposed to cover the optical fiber and protect the optical fiber; wherein an air layer is formed between the optical fiber and the protective member; characterized in that the first electronic component is a controller to control measurement operation by the optical device for measurement, and the second electronic component is a power supply to transform externally supplied electric power; wherein the controller and the power supply are arranged opposite to each other with the optical fiber interposed therebetween. an optical fiber to propagate light; and a protective member disposed to cover the optical fiber and protect the optical fiber; wherein an air layer is formed between the optical fiber and the protective member; characterized in that the first electronic component is a controller to control measurement operation by the optical device for measurement, and the second electronic component is a power supply to transform externally supplied electric power; wherein the controller and the power supply are arranged opposite to each other with the optical fiber interposed therebetween.
An input module comprising: electrical inputs adapted for connection to external equipment to receive electrical signal therefrom; a network interface for communicating with other devices; an electronic computer communicating with the electrical inputs and the network interface and executing a program stored in non-transient storage medium configured to: receive over the network interface motion data providing a time series of data value representing motion of a device and one of a registration command and a watch command; in response to the registration command, control a recording of the motion data based on a predetermined state of an electrical signal from an electrical input; or in response to the watch command, control a recording of an electrical signal from an electrical input based on a predetermined state of the motion data; send a completion signal to an industrial controller over the network interface after completion of recording of motion data together with the recorded motion data, or after completion of recording of electrical signal together with the recorded electrical signal. electrical inputs adapted for connection to external equipment to receive electrical signal therefrom; a network interface for communicating with other devices; an electronic computer communicating with the electrical inputs and the network interface and executing a program stored in non-transient storage medium configured to: receive over the network interface motion data providing a time series of data value representing motion of a device and one of a registration command and a watch command; in response to the registration command, control a recording of the motion data based on a predetermined state of an electrical signal from an electrical input; or in response to the watch command, control a recording of an electrical signal from an electrical input based on a predetermined state of the motion data; send a completion signal to an industrial controller over the network interface after completion of recording of motion data together with the recorded motion data, or after completion of recording of electrical signal together with the recorded electrical signal. receive over the network interface motion data providing a time series of data value representing motion of a device and one of a registration command and a watch command; in response to the registration command, control a recording of the motion data based on a predetermined state of an electrical signal from an electrical input; or in response to the watch command, control a recording of an electrical signal from an electrical input based on a predetermined state of the motion data; send a completion signal to an industrial controller over the network interface after completion of recording of motion data together with the recorded motion data, or after completion of recording of electrical signal together with the recorded electrical signal.
Method of purifying exhaust vapours which comprise, inter alia, carbon monoxide and sulfur dioxide SO 2, wherein those exhaust vapours are partially purified in a wet-washing unit, and then the carbon monoxide present in the partially purified exhaust vapours flowing downstream of the wet-washing unit is catalytically oxidised, characterised in that there is injected into the wet-washing unit an oxidation reagent capable of oxidising at least a substantial fraction of sulfur compounds other than sulfur dioxide SO 2 which are initially present in the exhaust vapours to be purified and which are poisons for the carbon monoxide oxidation catalyst, to form species which are innocuous for that catalyst.
A method for enabling an Ethernet ring to scalably support a hub-and-spoke connectivity model comprising a hub node and a plurality of spoke nodes, whereby the hub node is configured to communicate with each of the spoke nodes and each spoke node is configured to communicate with the hub node and not with other spoke nodes, the method comprising the steps of: receiving, by the hub node on the Ethernet ring at a first of two ports connected to the Ethernet ring, a first frame containing a source network address, a destination network address, a client virtual local area network VLAN identifier C-VID and a ring VLAN identifier RVID, the destination network address identifying an external network address not located on the ring, and the RVID uniquely identifying one of the plurality of spoke nodes on the Ethernet ring, each of the spoke nodes having a unique RVID; learning, by the hub node, the C-VID and the RVID from the frame on the first of the two ports connected to the Ethernet ring without learning the frame source network address at the first of the two ports connected to the Ethernet ring; and transmitting the frame on an external network port off the Ethernet ring toward the destination network address, using a pre-configured service identifier. receiving, by the hub node on the Ethernet ring at a first of two ports connected to the Ethernet ring, a first frame containing a source network address, a destination network address, a client virtual local area network VLAN identifier C-VID and a ring VLAN identifier RVID, the destination network address identifying an external network address not located on the ring, and the RVID uniquely identifying one of the plurality of spoke nodes on the Ethernet ring, each of the spoke nodes having a unique RVID; learning, by the hub node, the C-VID and the RVID from the frame on the first of the two ports connected to the Ethernet ring without learning the frame source network address at the first of the two ports connected to the Ethernet ring; and transmitting the frame on an external network port off the Ethernet ring toward the destination network address, using a pre-configured service identifier.
A continuous method for the preparation of perfume-containing melt bodies comprising at least one water-soluble or water-dispersible carrier polymer having a melting point of > 30 °C to 250 °C, preferably > 40 °C to 150 °C, preferably selected from polyalkylene glycols, particularly preferably polyethylene glycol, and at least one fragrance, characterized in that the method comprises the steps of: (a) continuously conveying, optionally continuously producing and conveying, a melt comprising the at least one water-soluble or water-dispersible carrier polymer; (b) continuously metering in the at least one fragrance to the melt comprising the at least one water-soluble or water-dispersible carrier polymer; (c) mixing the melt comprising the at least one water-soluble or water-dispersible carrier polymer and the at least one fragrance; and (d) cooling and optionally reshaping the mixture to obtain perfume-containing melt bodies. (a) continuously conveying, optionally continuously producing and conveying, a melt comprising the at least one water-soluble or water-dispersible carrier polymer; (b) continuously metering in the at least one fragrance to the melt comprising the at least one water-soluble or water-dispersible carrier polymer; (c) mixing the melt comprising the at least one water-soluble or water-dispersible carrier polymer and the at least one fragrance; and (d) cooling and optionally reshaping the mixture to obtain perfume-containing melt bodies.
A nozzle with a nozzle body on the back of which a blind hole or seat hole is realized, wherein at least one spray hole leads outward from the blind hole or seat hole; wherein the spray hole in the area of the spray hole entrance displays an oval cross section; wherein the blind hole or seat hole displays a groove, out of which the spray holes lead, characterized in that the spray hole is widened by a counterbore at the spray hole exit; and in that the longer axis of the spray hole entrance is oriented in accordance with the stress acting in the nozzle body.
A method of wireless communication performed by a user equipment, UE, comprising: receiving an indication associated with a communication, wherein the indication includes at least one of a physical downlink control channel, PDCCH,-based indication and a sequence-based indication, and wherein the UE is configured to receive PDCCH-based indications and sequence-based indications; and processing the communication based at least in part on the indication, the method characterized in that physical downlink shared channel, PDSCH, communications for a plurality of UEs, including the UE, are rate matched around resources designated for sequence-based indications regardless of whether the plurality of UEs is to receive the sequence-based indications. receiving an indication associated with a communication, wherein the indication includes at least one of a physical downlink control channel, PDCCH,-based indication and a sequence-based indication, and wherein the UE is configured to receive PDCCH-based indications and sequence-based indications; and processing the communication based at least in part on the indication, the method characterized in that physical downlink shared channel, PDSCH, communications for a plurality of UEs, including the UE, are rate matched around resources designated for sequence-based indications regardless of whether the plurality of UEs is to receive the sequence-based indications.
A control device for a transmission including m (m ≥ 3) solenoid valves (52, 54, 56, 58) and configured to establish a plurality of shift speeds by engaging n1 (2 ≤ n1 < m) engagement elements (C1-C6, B1, B2) using hydraulic pressures of n1 solenoid valves among the m solenoid valves (52, 54, 56, 58), the control device being characterized by: actual current value detection means (52a, 54a, 56a, 58a) configured to detect respective values (Ij) of actual currents flowing through solenoids (52s, 54s, 56s, 58s) of the m solenoid valves (52, 54, 56, 58); and determination means for determining whether or not braking torque is generated on an output shaft of the transmission by comparing the detected actual current values for solenoids of n2 (n1 < n2 ≤ m) solenoid valves and a current threshold (Iref), wherein the current threshold (Iref) is set for the actual currents flowing through at least one solenoid of at least one resting solenoid valve and is varied on the basis of a speed change ratio established by engaging engagement elements (C1-C6, B1, B2) corresponding to n1 solenoid valves among the n2 solenoid valves. actual current value detection means (52a, 54a, 56a, 58a) configured to detect respective values (Ij) of actual currents flowing through solenoids (52s, 54s, 56s, 58s) of the m solenoid valves (52, 54, 56, 58); and determination means for determining whether or not braking torque is generated on an output shaft of the transmission by comparing the detected actual current values for solenoids of n2 (n1 < n2 ≤ m) solenoid valves and a current threshold (Iref), wherein the current threshold (Iref) is set for the actual currents flowing through at least one solenoid of at least one resting solenoid valve and is varied on the basis of a speed change ratio established by engaging engagement elements (C1-C6, B1, B2) corresponding to n1 solenoid valves among the n2 solenoid valves.
A bending angle adjustment mechanism for an endoscope for adjusting a maximum bending angle of a bending portion, which is provided in a bending operation mechanism that rotates a rotating wheel attached to a rotating shaft by an operator rotating a knob attached to the rotating shaft provided in the operation portion of the endoscope grasped and operated by the operator, and reciprocally moves a long member connected to a wire that is extended from the bending portion at a distal end of the insertion portion and is wound on the rotating wheel, to move the bending portion, the bending angle adjustment mechanism comprising: a rod member that is provided to extend in a longitudinal direction of the insertion portion and has a threaded portion formed on a surface in the longitudinal direction; a plate member that is provided to be parallel to the longitudinal direction of the rod member and has both ends through which the rod member is inserted, the both ends being formed by being bent in a substantially perpendicular direction; an adjustment piece that is engaged with the threaded portion of the rod member; a guide member that is disposed to be parallel to the rod member and the plate member, and includes, in the longitudinal direction of the insertion portion, a guide path that allows the long member to pass and a guide surface that guides the adjustment piece; and a rotation preventing member that prevents the rod member from rotating with respect to the guide member, with the longitudinal direction as an axis, characterized in that the guide member has at least one surface that is sandwiched and fixed between the adjustment piece and the plate member, the at least one surface not being parallel to the guide surface of the guide member. a rod member that is provided to extend in a longitudinal direction of the insertion portion and has a threaded portion formed on a surface in the longitudinal direction; a plate member that is provided to be parallel to the longitudinal direction of the rod member and has both ends through which the rod member is inserted, the both ends being formed by being bent in a substantially perpendicular direction; an adjustment piece that is engaged with the threaded portion of the rod member; a guide member that is disposed to be parallel to the rod member and the plate member, and includes, in the longitudinal direction of the insertion portion, a guide path that allows the long member to pass and a guide surface that guides the adjustment piece; and a rotation preventing member that prevents the rod member from rotating with respect to the guide member, with the longitudinal direction as an axis, characterized in that the guide member has at least one surface that is sandwiched and fixed between the adjustment piece and the plate member, the at least one surface not being parallel to the guide surface of the guide member.
An organic electroluminescent element comprising an anode, at least one light-emitting layer and a cathode, in this order, wherein a total number of kinds of charge transport materials and light-emitting materials contained in at least one of the light-emitting layers is 5 or more, and a total number of kinds of the charge transport materials contained in at least one of the light-emitting layers is 3 or more, characterized in that the molecular weight of each kind of charge transport material is 10000 or less.