mhurhangee/patent-ind-claim-en huggingface dataset:
A driving tool which includes an air duster structure that is configured to jet compressed air out of a nozzle , and which is configured to eject a fastener by using the compressed air, the driving tool comprising: an operation portion ; a pipe line for circulating air; and a valve member which is configured to move in the pipe line with an operation to the operation portion , wherein, when the operation portion is operated, the compressed air is jetted out of the nozzle , and, when the operation portion is operated, the valve member moves in the pipe line , and an area of a flow channel in which air circulates is changed with the movement of the valve member so that a flow amount of the air in the pipe line is adjusted, and the driving tool being characterized by further comprising: a throttle portion configured to gradually change the area of the flow channel, with the movement of the valve member , to control the flow amount of the air in the pipe line , the throttle portion structured so as to increase the area of the flow channel at an accelerated rate, such that the flow channel area increases more rapidly than proportionally to the movement amount of the valve member , when the valve member moves in a direction that opens the pipe line . an operation portion ; a pipe line for circulating air; and a valve member which is configured to move in the pipe line with an operation to the operation portion , wherein, when the operation portion is operated, the compressed air is jetted out of the nozzle , and, when the operation portion is operated, the valve member moves in the pipe line , and an area of a flow channel in which air circulates is changed with the movement of the valve member so that a flow amount of the air in the pipe line is adjusted, and the driving tool being characterized by further comprising: a throttle portion configured to gradually change the area of the flow channel, with the movement of the valve member , to control the flow amount of the air in the pipe line , the throttle portion structured so as to increase the area of the flow channel at an accelerated rate, such that the flow channel area increases more rapidly than proportionally to the movement amount of the valve member , when the valve member moves in a direction that opens the pipe line .
A toner cartridge for use with a developer unit of an image forming device , comprising: a housing having a front , a rear , a top , a bottom and a pair of sides , the housing having a reservoir for holding toner; an outlet port on a front portion of the housing for transferring toner from the reservoir to the developer unit through an inlet port on the developer unit ; characterized by a first engagement member projecting from the front of the housing , the first engagement member having a first leading ramped front surface that projects further forward as it travels up the front of the toner cartridge , the first ramped front surface leading to a first vertical front surface positioned above the first ramped front surface ; and a second engagement member projecting from the front of the housing spaced toward one of the sides of the housing from the first engagement member , the second engagement member having a second leading ramped front surface that projects further forward as it travels up the front of the toner cartridge , the second ramped front surface leading to a second vertical front surface positioned above the second ramped front surface , the second vertical front surface and at least a portion of the second ramped front surface projecting further forward than the first vertical front surface . a housing having a front , a rear , a top , a bottom and a pair of sides , the housing having a reservoir for holding toner; an outlet port on a front portion of the housing for transferring toner from the reservoir to the developer unit through an inlet port on the developer unit ; characterized by a first engagement member projecting from the front of the housing , the first engagement member having a first leading ramped front surface that projects further forward as it travels up the front of the toner cartridge , the first ramped front surface leading to a first vertical front surface positioned above the first ramped front surface ; and a second engagement member projecting from the front of the housing spaced toward one of the sides of the housing from the first engagement member , the second engagement member having a second leading ramped front surface that projects further forward as it travels up the front of the toner cartridge , the second ramped front surface leading to a second vertical front surface positioned above the second ramped front surface , the second vertical front surface and at least a portion of the second ramped front surface projecting further forward than the first vertical front surface .
An apparatus comprising: a magnetic field detection circuit ; a cardiac signal sensing circuit configured to generate a cardiac signal representative of cardiac activity of a subject; a plurality of sensing of electrodes operatively coupled to the cardiac signal sensing circuit, wherein the electrodes are configured to be implanted subcutaneously; a memory circuit ; a control circuit operatively coupled to the magnetic field detection circuit, cardiac signal sensing circuit, and memory circuit, wherein the control circuit is configured to: store cardiac signal data determined using the generated cardiac signal in the memory circuit; receive an indication of magnetic field detection by the magnetic field detection circuit; continue to monitor for the magnetic field detection; identify cardiac signal data obtained during a specified duration of time prior to the magnetic field detection; and discard cardiac signal data obtained during a specified duration of time prior to the magnetic field detection and during the magnetic field detection. a magnetic field detection circuit ; a cardiac signal sensing circuit configured to generate a cardiac signal representative of cardiac activity of a subject; a plurality of sensing of electrodes operatively coupled to the cardiac signal sensing circuit, wherein the electrodes are configured to be implanted subcutaneously; a memory circuit ; a control circuit operatively coupled to the magnetic field detection circuit, cardiac signal sensing circuit, and memory circuit, wherein the control circuit is configured to: store cardiac signal data determined using the generated cardiac signal in the memory circuit; receive an indication of magnetic field detection by the magnetic field detection circuit; continue to monitor for the magnetic field detection; identify cardiac signal data obtained during a specified duration of time prior to the magnetic field detection; and discard cardiac signal data obtained during a specified duration of time prior to the magnetic field detection and during the magnetic field detection. store cardiac signal data determined using the generated cardiac signal in the memory circuit; receive an indication of magnetic field detection by the magnetic field detection circuit; continue to monitor for the magnetic field detection; identify cardiac signal data obtained during a specified duration of time prior to the magnetic field detection; and discard cardiac signal data obtained during a specified duration of time prior to the magnetic field detection and during the magnetic field detection.
A control device for operating a machine tool, in particular a milling machine or lathe, having a tool head that can be displaced and positioned by a motor, - which control device is set up to execute an at least partially freely programmable control program, and determines or co-determines the operational sequences of the machine tool, - and which control device comprises a user interface for manually controllable influencing of the operational sequences of the machine tool, wherein - the user interface comprises at least one operating element for manually controllable changing of movements of the tool head, - wherein a multi-functionally designed operating element is provided, which is set up, in a first usage state, to manually set or influence a feed speed during the course of a processing phase of the tool head, and which multi-functionally designed operating element is set up, in a second usage state, to manually set or influence a rapid traverse during the course of a rapid-traverse phase of the tool head, and that - the multi-functionally designed operating element is designed as a rotary adjuster operating element having an infinitely rotatable actuation member , - wherein a movement path to be performed by the tool head is defined in the control program, which movement path comprises processing phases and rapid-traverse phases of the tool head, - characterized in that change-overs between the first and the second usage state of the rotary adjuster operating element are caused by the control program automatically. - which control device is set up to execute an at least partially freely programmable control program, and determines or co-determines the operational sequences of the machine tool, - and which control device comprises a user interface for manually controllable influencing of the operational sequences of the machine tool, wherein - the user interface comprises at least one operating element for manually controllable changing of movements of the tool head, - wherein a multi-functionally designed operating element is provided, which is set up, in a first usage state, to manually set or influence a feed speed during the course of a processing phase of the tool head, and which multi-functionally designed operating element is set up, in a second usage state, to manually set or influence a rapid traverse during the course of a rapid-traverse phase of the tool head, and that - the multi-functionally designed operating element is designed as a rotary adjuster operating element having an infinitely rotatable actuation member , - wherein a movement path to be performed by the tool head is defined in the control program, which movement path comprises processing phases and rapid-traverse phases of the tool head, - characterized in that change-overs between the first and the second usage state of the rotary adjuster operating element are caused by the control program automatically.
A fiber-reinforced composite material comprising reinforcing fiber layers and a resin layer sandwiched therebetween, wherein conductive particles having a sphericity of 85% or more are disposed in the resin layer, and the fiber-reinforced composite material has a portion where upper and lower reinforcing fiber layers are connected by one conductive particle and has a portion where a conductive particle is sunk in a reinforcing fiber layer, and an amount of sinking of the conductive particles is 15% or more. wherein conductive particles having a sphericity of 85% or more are disposed in the resin layer, and the fiber-reinforced composite material has a portion where upper and lower reinforcing fiber layers are connected by one conductive particle and has a portion where a conductive particle is sunk in a reinforcing fiber layer, and an amount of sinking of the conductive particles is 15% or more.
A method for forming a product comprising a cyclic siloxane compound, where the method comprises: 1) combining, at a temperature of at least 200°C, (a) an organodihalosilane of formula R 1 2 SiX 2 , where each R 1 is independently a hydrogen atom, a halogenated hydrocarbyl group or a hydrocarbyl group; and each X is independently a halogen atom; and (c) a transition metal on cerium (IV) oxide catalyst, where the transition metal is selected from Rhenium, Iron, Nickel, and Copper; thereby producing the product comprising the cyclic siloxane compound. 1) combining, at a temperature of at least 200°C, (a) an organodihalosilane of formula R 1 2 SiX 2 , where each R 1 is independently a hydrogen atom, a halogenated hydrocarbyl group or a hydrocarbyl group; and each X is independently a halogen atom; and (c) a transition metal on cerium (IV) oxide catalyst, where the transition metal is selected from Rhenium, Iron, Nickel, and Copper; thereby producing the product comprising the cyclic siloxane compound. (a) an organodihalosilane of formula R 1 2 SiX 2 , where each R 1 is independently a hydrogen atom, a halogenated hydrocarbyl group or a hydrocarbyl group; and each X is independently a halogen atom; and (c) a transition metal on cerium (IV) oxide catalyst, where the transition metal is selected from Rhenium, Iron, Nickel, and Copper;
Reaction resin composition having a resin component that contains a radically polymerizable compound and having an initiator system that contains an α-halocarboxylic acid ester and a catalyst system, wherein the catalyst system comprises at least one nitrogen-containing ligand and Cu or an inorganic Cu(I) compound, wherein the inorganic Cu(I) compound is a Cu(I) compound with elements of the 6th main group.
A method for screening for an antimicrobial agent in an air-conditioning system to remove odors generated in the air-conditioning system from at least one microorganism selected from the group consisting of Pelomonas puraquae, Spirosoma radiotolerans, Fibrella aestuarina, Chryseobacterium geocarposphaerae , Spirosoma linguale , and Geobacillus toebii , the method comprising: (a) preparing the microorganism or a culture solution thereof; (b) bringing the microorganism or a culture solution thereof into contact with a sample; (c) measuring growth inhibition of the microorganism; and (d) considering the sample to have antibacterial activity to reduce odors in an air-conditioning system, when growth of the microorganism is inhibited. (b) bringing the microorganism or a culture solution thereof into contact with a sample; (c) measuring growth inhibition of the microorganism; and (d) considering the sample to have antibacterial activity to reduce odors in an air-conditioning system, when growth of the microorganism is inhibited.
Bioelectronic system, comprising at least i) in vitro generated cardiac pacemaker tissue comprising cardiac pacemaker cells; ii) an electronic circuit applied to a semiconductor carrier and comprising at least one field-effect transistor; characterized in that the in vitro generated cardiac pacemaker tissue comprising cardiac pacemaker cells according to i) is immobilized on the electronic circuit applied to the semiconductor carrier according to ii) and is arranged in conductive communication with the at least one field-effect transistor. i) in vitro generated cardiac pacemaker tissue comprising cardiac pacemaker cells; ii) an electronic circuit applied to a semiconductor carrier and comprising at least one field-effect transistor;
Positive electrode material for a lithium battery comprising a lithiated metal layered oxide comprising one or more metal elements arranged in the form of layers of metal cations and lithium arranged in interlayers of lithium cations and, in part, in the layers of metal cations, said interlayers ensuring the separation between said layers, said oxide having a stack arrangement O2 and corresponding to the following formula (I): Li( a+b )Ni c Mn d Co e M f O g (I) wherein: ∗ a represents the proportion of lithium included in the interlayers and being greater than 0 and less than or equal to 1; ∗ b represents the proportion of lithium included in the layers of metal cations and being greater than 0 and less than or equal to (1/3); ∗ c, d, e and f are between 0 and 1, with the condition that b+c+d+e+f=1, in such a way that the electroneutrality of the oxide of formula (I) is respected; ∗ g is between 1.9 and 2.1; ∗ when f is different from 0, M is at least one element selected from Al, Fe, Ti, Cr, V, Cu, Mg, Zn, Na, K, Ca, Sc and the combinations thereof; characterised in that said oxide is coated, in whole or in part, with an oxide of the following formula (II): Mn h M' i O 2 (II) wherein: ∗ 0<h≤1.5, preferably equal to 1; ∗ M' is at least one element selected from Ni, Al, Fe, Ti, Cr, V, Cu, Mg, Zn, Na, K, Ca, Sc ∗ 0≤i≤1.5. ∗ a represents the proportion of lithium included in the interlayers and being greater than 0 and less than or equal to 1; ∗ b represents the proportion of lithium included in the layers of metal cations and being greater than 0 and less than or equal to (1/3); ∗ c, d, e and f are between 0 and 1, with the condition that b+c+d+e+f=1, in such a way that the electroneutrality of the oxide of formula (I) is respected; ∗ g is between 1.9 and 2.1; ∗ when f is different from 0, M is at least one element selected from Al, Fe, Ti, Cr, V, Cu, Mg, Zn, Na, K, Ca, Sc and the combinations thereof; characterised in that said oxide is coated, in whole or in part, with an oxide of the following formula (II): Mn h M' i O 2 (II) wherein: ∗ 0<h≤1.5, preferably equal to 1; ∗ M' is at least one element selected from Ni, Al, Fe, Ti, Cr, V, Cu, Mg, Zn, Na, K, Ca, Sc ∗ 0≤i≤1.5. ∗ 0<h≤1.5, preferably equal to 1; ∗ M' is at least one element selected from Ni, Al, Fe, Ti, Cr, V, Cu, Mg, Zn, Na, K, Ca, Sc ∗ 0≤i≤1.5.
A mid-turbine frame for a gas turbine engine , the mid-turbine frame comprising: an inner frame case including a bolt opening ; at least one spoke for connecting an outer frame case to the inner frame case including an inlet passage extending in a radial direction; and a central bolt extending through the bolt opening for securing the at least one spoke to the inner frame case and including an airflow passage extending radially through the central bolt , wherein the airflow passage is aligned with, and fluidly coupled to, the inlet passage , characterised in that : a radially inner end of the at least one spoke includes at least two tabs ; and the inner frame case includes at least two protrusions that form a groove for accepting the at least two tabs . an inner frame case including a bolt opening ; at least one spoke for connecting an outer frame case to the inner frame case including an inlet passage extending in a radial direction; and a central bolt extending through the bolt opening for securing the at least one spoke to the inner frame case and including an airflow passage extending radially through the central bolt , wherein the airflow passage is aligned with, and fluidly coupled to, the inlet passage , a radially inner end of the at least one spoke includes at least two tabs ; and the inner frame case includes at least two protrusions that form a groove for accepting the at least two tabs .
An electrical device with a housing part , wherein first, second and third cooling fins are moulded or formed on the housing part , wherein the housing part has a wall, in particular upper side, and two side walls, wherein each of the cooling fins extends along the wall and at least one of the side walls, wherein on each of the side walls a respective thickened portion, which functions as a land , of the wall thickness of the housing part connects two cooling fins which in each case are next adjacent to each other, characterised in that the wall thickness of the housing part in the region of a respective land is less than the wall thickness of the housing part in the respective region of the cooling fins which adjoins the respective land . wherein first, second and third cooling fins are moulded or formed on the housing part , wherein the housing part has a wall, in particular upper side, and two side walls, wherein each of the cooling fins extends along the wall and at least one of the side walls, wherein on each of the side walls a respective thickened portion, which functions as a land , of the wall thickness of the housing part connects two cooling fins which in each case are next adjacent to each other, characterised in that the wall thickness of the housing part in the region of a respective land is less than the wall thickness of the housing part in the respective region of the cooling fins which adjoins the respective land .
A latch assembly for securing an electronic component within a computing device, characterized by comprising: a latch comprising a first structural member , a second structural member , two linking elements interconnecting the first structural member and the second structural member , and a first securing element located at the first structural member , a base comprising a receiving space for receiving the latch , a first connection element to secure the first structural member , a second connection element to secure the second structural member , a plurality of protruding elements , and a second securing element corresponding with the first securing element , and a cover secured to the base at the plurality of protruding elements , wherein the two linking elements are configured to deform during the assembling of the latch within the base , and the cover is configured to contact the two linking elements at a location where the two linking elements deform to lock the latch in place. a latch comprising a first structural member , a second structural member , two linking elements interconnecting the first structural member and the second structural member , and a first securing element located at the first structural member , a base comprising a receiving space for receiving the latch , a first connection element to secure the first structural member , a second connection element to secure the second structural member , a plurality of protruding elements , and a second securing element corresponding with the first securing element , and a cover secured to the base at the plurality of protruding elements , wherein the two linking elements are configured to deform during the assembling of the latch within the base , and the cover is configured to contact the two linking elements at a location where the two linking elements deform to lock the latch in place.
A digitizer and processor device for a swept-source optical coherence tomography (SS-OCT) imaging system, comprising: an input configured to receive an OCT analogue signal; a control input configured to receive a k-clock analogue signal; a combiner unit receiving the OCT analogue signal and the k-clock analogue signal, configured to output a composite analogue signal; a digitizing unit arranged to convert the composite analogue signal into a digital composite signal ; a data processing unit arranged to determine a tomographic profile of the sample that generated the OCT signal based on the digital composite signal , wherein, either the spectrum of the k-clock analogue signal does not significantly overlap with the spectrum of the OCT analogue signal, or the k-clock analogue signal and/or the OCT analogue signal are filtered such that their spectra do not significantly overlap, characterized in that the data processing unit comprises one or more digital filters arranged to extract from the digital composite signal a digital OCT signal representing the contribution of the OCT signal to the digital composite signal, and a digital k-clock signal representing the contribution of the k-clock signal to the digital composite signal. an input configured to receive an OCT analogue signal; a control input configured to receive a k-clock analogue signal; a combiner unit receiving the OCT analogue signal and the k-clock analogue signal, configured to output a composite analogue signal; a digitizing unit arranged to convert the composite analogue signal into a digital composite signal ; a data processing unit arranged to determine a tomographic profile of the sample that generated the OCT signal based on the digital composite signal , wherein, either the spectrum of the k-clock analogue signal does not significantly overlap with the spectrum of the OCT analogue signal, or the k-clock analogue signal and/or the OCT analogue signal are filtered such that their spectra do not significantly overlap, characterized in that the data processing unit comprises one or more digital filters arranged to extract from the digital composite signal a digital OCT signal representing the contribution of the OCT signal to the digital composite signal, and a digital k-clock signal representing the contribution of the k-clock signal to the digital composite signal.