mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine component comprising: a gas path wall having a first and second opposing surfaces (106, 108); a baffle positioned along the gas path wall, the baffle having impingement holes for directing cooling fluid onto the first surface of the gas path wall; a cooling hole formed in the gas path wall, the cooling hole extending from a metering section having an inlet in the first surface through a transition to a diffusing section having an outlet in the second surface; and a longitudinal ridge extending along the cooling hole between the transition and the outlet, the longitudinal ridge dividing the diffusing section of the cooling hole into first and second lobes, characterised in that the component further comprises: a transition region extending from the longitudinal ridge to a trailing edge of the outlet, wherein the longitudinal ridge terminates at the transition region; and a cusp on the inlet, wherein the longitudinal ridge extends through the transition and along the metering section of the cooling hole to the cusp. a gas path wall having a first and second opposing surfaces (106, 108); a baffle positioned along the gas path wall, the baffle having impingement holes for directing cooling fluid onto the first surface of the gas path wall; a cooling hole formed in the gas path wall, the cooling hole extending from a metering section having an inlet in the first surface through a transition to a diffusing section having an outlet in the second surface; and a longitudinal ridge extending along the cooling hole between the transition and the outlet, the longitudinal ridge dividing the diffusing section of the cooling hole into first and second lobes, characterised in that the component further comprises: a transition region extending from the longitudinal ridge to a trailing edge of the outlet, wherein the longitudinal ridge terminates at the transition region; and a cusp on the inlet, wherein the longitudinal ridge extends through the transition and along the metering section of the cooling hole to the cusp. a transition region extending from the longitudinal ridge to a trailing edge of the outlet, wherein the longitudinal ridge terminates at the transition region; and a cusp on the inlet, wherein the longitudinal ridge extends through the transition and along the metering section of the cooling hole to the cusp.
A method for producing mesodermal cells, comprising the step of culturing pluripotent stem cells in a serum-free medium without forming an embryoid body and without coculturing with cells from a different species, wherein cytokines including BMP4 and VEGF are added to the serum-free medium.
A power tool which is adapted to linearly drive a detachably coupled tool bit to perform a predetermined operation on a workpiece, comprising a tool body including a motor housing and a gear housing, a driving motor housed within the motor housing, a motor output shaft of the driving motor which extends in an axial direction of the tool bit, a motion converting section, including a swinging member that is caused to swing in the axial direction of the tool bit by rotation of the motor output shaft, and a driving element that is disposed parallel to the motor output shaft and moves linearly in the axial direction of the tool bit via components of the swinging movement of the swinging member in the axial direction of the tool bit, the motion converting section being disposed to the tool bit side of the driving motor in the axial direction of the tool bit, an air spring chamber defined within the driving element, a striking element that strikes the tool bit via the air spring chamber by linear movement of the driving element, a power transmitting section, including a holding element that extends in the axial direction of the tool bit and holds the tool bit, and a transmission gear that rotates the holding element on its axis and thus rotationally drives the tool bit when the motor output shaft rotates, the motion converting section and the power transmitting section being housed in the gear housing, an internal space which is located to the motion converting section side of the driving motor within the body, an inner edge of the internal space being defined by an outer edge of the motion converting section, and an outer edge of the internal space being defined by an outer periphery of the transmission gear such that the internal space 120 is provided around the motion converting section and defined as a region which overlaps an area sectioned by the outer periphery of the transmission gear in the axial direction of the tool bit, and a dynamic vibration reducer having a weight and an elastic member that elastically supports the weight with respect to the tool body, wherein the weight elastically supported by the elastic member moves linearly in the axial direction of the tool bit against a spring force of the elastic member to reduce the vibration of the tool body, characterized in that the dynamic vibration reducer is disposed within the internal space in its entirety or in part, and the dynamic vibration reducer is placed in a tool upper region above the motion converting section when viewed in a section of the body which is taken in a direction transverse to the axial direction of the tool bit.
A breathing apparatus usage data capture system for use with a breathing apparatus comprising a flow generator, one or more sensors, and a controller, said breathing apparatus usage data capture system comprising: at least one user computer, the at least one computer comprising; a device interface for receiving a memory device containing usage data, a processor configured to automatically execute an application that retrieves usage data from a memory device via the interface when the memory device is connected to the device interface, wherein the memory device is configured to be electronically connected to a memory port of the breathing apparatus so as to retrieve the usage data, and a network interface to transmit the usage data across a network, and a computer system, the computer system comprising a network interface and processor configured to: receive usage data from the user computer via a network in response to the memory device being connected to the device interface of the user computer, and transmit a reminder for the user to connect the memory device to the device interface. at least one user computer, the at least one computer comprising; a device interface for receiving a memory device containing usage data, a processor configured to automatically execute an application that retrieves usage data from a memory device via the interface when the memory device is connected to the device interface, wherein the memory device is configured to be electronically connected to a memory port of the breathing apparatus so as to retrieve the usage data, and a network interface to transmit the usage data across a network, and a device interface for receiving a memory device containing usage data, a processor configured to automatically execute an application that retrieves usage data from a memory device via the interface when the memory device is connected to the device interface, wherein the memory device is configured to be electronically connected to a memory port of the breathing apparatus so as to retrieve the usage data, and a network interface to transmit the usage data across a network, and a computer system, the computer system comprising a network interface and processor configured to: receive usage data from the user computer via a network in response to the memory device being connected to the device interface of the user computer, and transmit a reminder for the user to connect the memory device to the device interface. receive usage data from the user computer via a network in response to the memory device being connected to the device interface of the user computer, and transmit a reminder for the user to connect the memory device to the device interface.
A variable circuit that has a MEMS switch (2, 4) that changes the mechanical state thereof and has a characteristic that is changed by a change of the mechanical state of the MEMS switch (2, 4), the variable circuit comprising: a multi-band power amplifier that has said MEMS switch (2, 4) as a part of its matching circuit (14, 16); a controlling section that turns said MEMS switch (2, 4) from a current state, which is a current mechanical state, to a different state, which is a state different from the current state, and returns said MEMS switch (2, 4) from said different state to said current state; a trigger transmitting section that transmits a first trigger to turn said MEMS switch (2, 4) from said current state to said different state and a second trigger to return said MEMS switch (2, 4) from said different state to said current state to said controlling section characterized in that a timer that measures time and makes said trigger transmitting section transmit said first trigger and said second trigger by predetermined timings. a multi-band power amplifier that has said MEMS switch (2, 4) as a part of its matching circuit (14, 16); a controlling section that turns said MEMS switch (2, 4) from a current state, which is a current mechanical state, to a different state, which is a state different from the current state, and returns said MEMS switch (2, 4) from said different state to said current state; a trigger transmitting section that transmits a first trigger to turn said MEMS switch (2, 4) from said current state to said different state and a second trigger to return said MEMS switch (2, 4) from said different state to said current state to said controlling section characterized in that a timer that measures time and makes said trigger transmitting section transmit said first trigger and said second trigger by predetermined timings.
A method for producing collections from a plurality of N = 3, 4,... different advertising leaflets (11a-d) that are delivered and distributed to recipients, for example households, within the scope of a direct mailing, the collections each comprising a stack of advertising leaflets (11a-c) that is packed in a packaging element that is wrapped around the stack, comprising the following steps: - providing the N advertising leaflets (11a-d); - forming the stack from N - x of the N advertising leaflets (11a-d), where x = 1; - providing the x remaining advertising leaflet as a packaging element; - wrapping the stack in the packaging element; wherein the packaging element is laid on a base surface, the stack is placed on the packaging element in such a way that only a partial area of the packaging element is covered by the stack, and with the remaining area the packaging element is wrapped around the stack, and wherein in order to wrap the packaging element around the stack, the remaining area of the packaging element is bent upwardly approximately at a right angle in a first step, and the part of the packaging element that is bent upwardly is bent back over the stack in a second step. - providing the N advertising leaflets (11a-d); - forming the stack from N - x of the N advertising leaflets (11a-d), where x = 1; - providing the x remaining advertising leaflet as a packaging element; - wrapping the stack in the packaging element;
A mobile electronic device comprising: an acceleration sensor configured to detect an acceleration value; a communication processing unit configured to perform communication; and a controller configured to determine a walking state and a stopped state based on the acceleration value detected by the acceleration sensor, and determine a riding state and the stopped state based on the acceleration value detected by the acceleration sensor, characterized in that the controller is configured to cause a communication function of the communication processing unit to turn on when the state of the mobile electronic device changes from the walking state to the stopped state and then does not change from the stopped state to a moving state again, the moving state comprising the walking state and the riding state, for a predetermined period of time, and when the state of the mobile electronic device transitions from the riding state to the stopped state, the controller is configured to cause the communication function of the communication processing unit to turn on before the predetermined period of time passes after the state of the mobile electronic device transitions from the riding state to the stopped state. an acceleration sensor configured to detect an acceleration value; a communication processing unit configured to perform communication; and a controller configured to determine a walking state and a stopped state based on the acceleration value detected by the acceleration sensor, and determine a riding state and the stopped state based on the acceleration value detected by the acceleration sensor, characterized in that the controller is configured to cause a communication function of the communication processing unit to turn on when the state of the mobile electronic device changes from the walking state to the stopped state and then does not change from the stopped state to a moving state again, the moving state comprising the walking state and the riding state, for a predetermined period of time, and when the state of the mobile electronic device transitions from the riding state to the stopped state, the controller is configured to cause the communication function of the communication processing unit to turn on before the predetermined period of time passes after the state of the mobile electronic device transitions from the riding state to the stopped state.
An atomizing element for an electronic cigarette, comprising: a porous body comprising an atomizing surface and a liquid absorbing surface; and a porous heating film formed on the atomizing surface, wherein the porous body is provided with a plurality of micropores having a diameter of 1μm to 100μm, characterized in that a sum volume of the micropores having a diameter of 5μm to 30μm is more than 60% of a sum volume of total micropores. a porous body comprising an atomizing surface and a liquid absorbing surface; and a porous heating film formed on the atomizing surface, wherein the porous body is provided with a plurality of micropores having a diameter of 1μm to 100μm, characterized in that a sum volume of the micropores having a diameter of 5μm to 30μm is more than 60% of a sum volume of total micropores.
Spindle locking device, in particular hand-tool spindle locking device, having a spindle (12a-c), a clamping ring (14a-e) and at least one clamping piece (16a-c) which connects the spindle (12a-c) and the clamping ring (14a-e) together for conjoint rotation in at least one operating state, characterized by at least one magnetic means (18a-e) which effects a force on the clamping piece (16a-c) in at least one operating state.
A network apparatus, comprising: a marking unit marking traffic that exceeds a predetermined rate limit; a measuring unit measuring an amount of the marked traffic; and a monitoring unit outputting the measured traffic amount in a period determined based on an expected duration time of abnormal traffic as a detection target, wherein the abnormal traffic as a detection target is a micro-bursting; and wherein micro-bursting is caused within a short time of a few milliseconds. a marking unit marking traffic that exceeds a predetermined rate limit; a measuring unit measuring an amount of the marked traffic; and a monitoring unit outputting the measured traffic amount in a period determined based on an expected duration time of abnormal traffic as a detection target, wherein the abnormal traffic as a detection target is a micro-bursting; and wherein micro-bursting is caused within a short time of a few milliseconds.
A method of providing service cells (140 1, 140 2, 140 3) for wireless communication between user equipment and a core network, comprising the steps of: providing a plurality of listening cells across a service area associated with an aerial vehicle (HAP, 100); each listening cell covering at least a portion of the service area; associating user equipment located in the service area with at least one listening cell; wherein associating the user equipment comprises: determining at least one parameter associated with a wireless signal transmitted from the aerial vehicle to the user equipment; and responsive to the parameter, providing an association request signal from the user equipment to the aerial vehicle; determining which listening cells are qualifying listening cells that are listening cells that satisfy at least one predetermined condition; and subsequently providing at least one service cell in the service area for each qualifying listening cell; wherein providing the at least one service cell comprises activating the service cell for each qualifying listening cell. providing a plurality of listening cells across a service area associated with an aerial vehicle (HAP, 100); each listening cell covering at least a portion of the service area; associating user equipment located in the service area with at least one listening cell; wherein associating the user equipment comprises: determining at least one parameter associated with a wireless signal transmitted from the aerial vehicle to the user equipment; and responsive to the parameter, providing an association request signal from the user equipment to the aerial vehicle; determining at least one parameter associated with a wireless signal transmitted from the aerial vehicle to the user equipment; and responsive to the parameter, providing an association request signal from the user equipment to the aerial vehicle; determining which listening cells are qualifying listening cells that are listening cells that satisfy at least one predetermined condition; and subsequently providing at least one service cell in the service area for each qualifying listening cell; wherein providing the at least one service cell comprises activating the service cell for each qualifying listening cell.
A fitness device for use in performing a combination pull-up and fly move, comprising: a floor-engaging member coupled to a central vertical support; and a horizontal pull-up bar able to support at least 182 kg (400 pounds) of weight and configured to support a human pull-up movement, securely coupled by a central pivot portion to the central vertical support at a height of at least 1.75 m (5' 9") from the floor engaging member, wherein the horizontal pull-up bar comprises a right bar member and a left bar member, and wherein the right bar member and the left bar member are pivotally connected to the central pivot portion such that the right bar member and the left bar member may be resistively moved simultaneously from an original position 180° relative to one another to a position 90° forward from the original position while a user is performing a combination pull-up and fly movement. a floor-engaging member coupled to a central vertical support; and a horizontal pull-up bar able to support at least 182 kg (400 pounds) of weight and configured to support a human pull-up movement, securely coupled by a central pivot portion to the central vertical support at a height of at least 1.75 m (5' 9") from the floor engaging member, wherein the horizontal pull-up bar comprises a right bar member and a left bar member, and wherein the right bar member and the left bar member are pivotally connected to the central pivot portion such that the right bar member and the left bar member may be resistively moved simultaneously from an original position 180° relative to one another to a position 90° forward from the original position while a user is performing a combination pull-up and fly movement.
A process for depositing a silicon-containing film on a substrate via chemical vapor deposition, the process comprising: providing the substrate in a process chamber; introducing an aminosilane precursor into the process chamber at a temperature and a pressure sufficient to react and deposit the silicon-containing film on the substrate wherein the aminosilane precursor comprises a compound having the following formula: (R 1 R 2 N) n SiR 3 4-n wherein substituents R 1 and R 2 are each independently chosen from an alkyl group comprising from 1 to 20 carbon atoms and an aryl group comprising from 6 to 30 carbon atoms, wherein at least one of substituents R 1 and R 2 comprises at least one electron withdrawing substituent chosen from F, Cl, Br, I, CN, NO 2, PO 2, OR, RCOO, SO 2 R and COOH and wherein R in the at least one electron withdrawing substituent is chosen from an alkyl group or an aryl group, and R 3 is chosen from H, an alkyl group comprising from 1 to 20 carbon atoms, or an aryl group comprising from 6 to 12 carbon atoms, wherein any one of, or all of R, R 1 and R 2 can be substituted and R 3 can be substituted, when R 3 is alkyl group or an aryl group, and n is a number ranging from 1 to 4. providing the substrate in a process chamber; introducing an aminosilane precursor into the process chamber at a temperature and a pressure sufficient to react and deposit the silicon-containing film on the substrate wherein the aminosilane precursor comprises a compound having the following formula: (R 1 R 2 N) n SiR 3 4-n wherein substituents R 1 and R 2 are each independently chosen from an alkyl group comprising from 1 to 20 carbon atoms and an aryl group comprising from 6 to 30 carbon atoms, wherein at least one of substituents R 1 and R 2 comprises at least one electron withdrawing substituent chosen from F, Cl, Br, I, CN, NO 2, PO 2, OR, RCOO, SO 2 R and COOH and wherein R in the at least one electron withdrawing substituent is chosen from an alkyl group or an aryl group, and R 3 is chosen from H, an alkyl group comprising from 1 to 20 carbon atoms, or an aryl group comprising from 6 to 12 carbon atoms, wherein any one of, or all of R, R 1 and R 2 can be substituted and R 3 can be substituted, when R 3 is alkyl group or an aryl group, and n is a number ranging from 1 to 4.
Method for authenticating a device comprising a processor and a smart card, characterized in that it has the following steps: • unlocking of said smart card by a user using a PIN code; • transmission of a secret key Kc from said smart card, and of the PIN code from said smart card, to said processor; • cryptographic computation on said processor implementing a secret key Kp for the processor, the PIN code and Kc; • generation, by said processor, of a pattern that can be read by a human being from said cryptographic computation; • transmission of said pattern to the user; and • comparison, by the user, of said pattern generated by the device with a pattern stored in memory by the user. • unlocking of said smart card by a user using a PIN code; • transmission of a secret key Kc from said smart card, and of the PIN code from said smart card, to said processor; • cryptographic computation on said processor implementing a secret key Kp for the processor, the PIN code and Kc; • generation, by said processor, of a pattern that can be read by a human being from said cryptographic computation; • transmission of said pattern to the user; and • comparison, by the user, of said pattern generated by the device with a pattern stored in memory by the user.