mhurhangee/patent-ind-claim-en huggingface dataset:
A switch-opening speed adjustment mechanism comprising: a vacuum valve having, inside the vacuum valve , a fixed contact and a movable contact contactable with and separable from the fixed contact; an operation mechanism which causes the movable contact to contact with or be separated from the fixed contact; a link which is rotated by the operation mechanism; a pin which is moved in the contact/separation direction of the movable contact by the link ; a first pipe connected to the pin ; a contact-pressure spring which is in contact with an end of the first pipe and applies a contact pressure to the movable contact; a second pipe in contact with a surface, of the contact-pressure spring , that is opposite to a side in contact with the first pipe ; a pipe end member welded to the other end of the first pipe ; a shaft provided inside the first pipe , the contact-pressure spring , and the second pipe concentrically therewith; a headless bolt which is in contact with an end of the shaft and penetrates through the pipe end member , an end of the headless bolt being in contact with the shaft ; and a nut which is screwed to the headless bolt and which is rotated to compress or release the contact-pressure spring , thereby adjusting a switch-opening speed of the movable contact. a vacuum valve having, inside the vacuum valve , a fixed contact and a movable contact contactable with and separable from the fixed contact; an operation mechanism which causes the movable contact to contact with or be separated from the fixed contact; a link which is rotated by the operation mechanism; a pin which is moved in the contact/separation direction of the movable contact by the link ; a first pipe connected to the pin ; a contact-pressure spring which is in contact with an end of the first pipe and applies a contact pressure to the movable contact; a second pipe in contact with a surface, of the contact-pressure spring , that is opposite to a side in contact with the first pipe ; a pipe end member welded to the other end of the first pipe ; a shaft provided inside the first pipe , the contact-pressure spring , and the second pipe concentrically therewith; a headless bolt which is in contact with an end of the shaft and penetrates through the pipe end member , an end of the headless bolt being in contact with the shaft ; and a nut which is screwed to the headless bolt and which is rotated to compress or release the contact-pressure spring , thereby adjusting a switch-opening speed of the movable contact.
A drag pumping mechanism for a turbomolecular pump , the drag pumping mechanism comprising: an impeller comprising an impeller shaft defining a rotation axis of the impeller; a motor configured to drive the rotation of the impeller; and a drag generation structure , the drag generation structure comprising: an annular body extending around the impeller shaft, the annular body comprising a frustoconical surface , and a plurality of walls extending from the frustoconical surface the plurality of walls defining a plurality of channels therebetween wherein the impeller is configured to rotate relative to the drag generation structure about the rotation axis to pump gas through the plurality of channels of the drag generation structure, characterised in that the drag generation structure is disposed on the motor, and in that the drag generation structure is integrally formed with a part of the motor. an impeller comprising an impeller shaft defining a rotation axis of the impeller; a motor configured to drive the rotation of the impeller; and a drag generation structure , the drag generation structure comprising: an annular body extending around the impeller shaft, the annular body comprising a frustoconical surface , and a plurality of walls extending from the frustoconical surface the plurality of walls defining a plurality of channels therebetween wherein the impeller is configured to rotate relative to the drag generation structure about the rotation axis to pump gas through the plurality of channels of the drag generation structure, an annular body extending around the impeller shaft, the annular body comprising a frustoconical surface , and a plurality of walls extending from the frustoconical surface the plurality of walls defining a plurality of channels therebetween wherein the impeller is configured to rotate relative to the drag generation structure about the rotation axis to pump gas through the plurality of channels of the drag generation structure, characterised in that the drag generation structure is disposed on the motor, and in that the drag generation structure is integrally formed with a part of the motor.
A sample collection device for collecting a sample of a fluid of a user, e.g. blood, the sample collection device comprising: - a sample container arranged to receive said sample and comprising an open end ; - a triggering mechanism ; - a cap arranged to cooperate with said sample container so as to close said open end , said cap being arranged to be moved in and/or on the sample container from a first cap position to a second cap position, wherein in the first and in the second cap positions said cap is at least partially in contact with said sample container so as to guide the movement of the cap from the first cap position to the second cap position, said cap comprising: - a collection window arranged to enter in contact with an area of the user to be incised; - an incision mechanism movable in the cap by said triggering mechanism from a first incision mechanism position to a second incision mechanism position, wherein during said moving the incision mechanism is arranged to incise at the collection window the area of the user so as to exit the sample from the user, said sample being received by said sample container , and wherein during the moving from the first incision mechanism position to the second incision mechanism the cap is in the first cap position; - a sealing mechanism, so as to seal said sample container when the cap is in the second cap position, so as to safely transport said sample . - a sample container arranged to receive said sample and comprising an open end ; - a triggering mechanism ; - a cap arranged to cooperate with said sample container so as to close said open end , said cap being arranged to be moved in and/or on the sample container from a first cap position to a second cap position, wherein in the first and in the second cap positions said cap is at least partially in contact with said sample container so as to guide the movement of the cap from the first cap position to the second cap position, said cap comprising: - a collection window arranged to enter in contact with an area of the user to be incised; - an incision mechanism movable in the cap by said triggering mechanism from a first incision mechanism position to a second incision mechanism position, wherein during said moving the incision mechanism is arranged to incise at the collection window the area of the user so as to exit the sample from the user, said sample being received by said sample container , and wherein during the moving from the first incision mechanism position to the second incision mechanism the cap is in the first cap position; - a sealing mechanism, so as to seal said sample container when the cap is in the second cap position, so as to safely transport said sample .
An abnormality determination device for a transporting refrigeration apparatus, the abnormality determination device comprising: a determination unit configured to determine an abnormality of the transporting refrigeration apparatus suitable to be installed on a container, wherein the transporting refrigeration apparatus includes a refrigerant circuit that connects a compressor , a condenser , a decompression device , and an evaporator , wherein, when a test operation is performed for test operating modes during a pre-trip inspection to be conducted multiple times before the container is loaded on a transporting device, the abnormality determination device is configured to obtain at least part of time series test data related to a same one of the test operating modes in the pre-trip inspection, wherein the determination unit is configured to determine whether the transporting refrigeration apparatus has an abnormality based on a change trend of the time series test data related to a same one of the test operating modes when the pre-trip inspection is conducted multiple times, and when there is no abnormality, the determination unit is configured to estimate an abnormality occurrence time. a determination unit configured to determine an abnormality of the transporting refrigeration apparatus suitable to be installed on a container, wherein the transporting refrigeration apparatus includes a refrigerant circuit that connects a compressor , a condenser , a decompression device , and an evaporator , wherein, when a test operation is performed for test operating modes during a pre-trip inspection to be conducted multiple times before the container is loaded on a transporting device, the abnormality determination device is configured to obtain at least part of time series test data related to a same one of the test operating modes in the pre-trip inspection, wherein the determination unit is configured to determine whether the transporting refrigeration apparatus has an abnormality based on a change trend of the time series test data related to a same one of the test operating modes when the pre-trip inspection is conducted multiple times, and when there is no abnormality, the determination unit is configured to estimate an abnormality occurrence time.
A CNS-active compound according to Formula I: wherein Ar is a substituted phenyl, optionally substituted naphthyl, optionally substituted tetrahydronaphthyl, or optionally substituted indane, wherein up to 5 substituents are present on Ar and each substituent is independently selected from the group consisting of alkyl, halogen, alkoxy, haloalkyl, haloalkoxy, CN, phenyl, and phenoxy, or wherein an alkylenedioxy substituent forms a ring with Ar; R 1 and R 2 are each independently H or alkyl; R 3 is alkyl, or together with R 4 a cycloalkyl; R 4 is alkyl or together with R 3 a cycloalkyl; and X is one of nothing, oxygen, NR 1 , sulfur, sulfone, or sulfoxide; or a CNS-active compound having one of Formulas D-O, W-Z, AA-AC, AE, AG, AL-AS, and AV- AY: with the proviso that the CNS-active compound is not one of: wherein Ar is a substituted phenyl, optionally substituted naphthyl, optionally substituted tetrahydronaphthyl, or optionally substituted indane, wherein up to 5 substituents are present on Ar and each substituent is independently selected from the group consisting of alkyl, halogen, alkoxy, haloalkyl, haloalkoxy, CN, phenyl, and phenoxy, or wherein an alkylenedioxy substituent forms a ring with Ar; wherein up to 5 substituents are present on Ar and each substituent is independently selected from the group consisting of alkyl, halogen, alkoxy, haloalkyl, haloalkoxy, CN, phenyl, and phenoxy, or wherein an alkylenedioxy substituent forms a ring with Ar; R 1 and R 2 are each independently H or alkyl; R 3 is alkyl, or together with R 4 a cycloalkyl; R 4 is alkyl or together with R 3 a cycloalkyl; and X is one of nothing, oxygen, NR 1 , sulfur, sulfone, or sulfoxide; or a CNS-active compound having one of Formulas D-O, W-Z, AA-AC, AE, AG, AL-AS, and AV- AY: with the proviso that the CNS-active compound is not one of:
A fastener assembly that is configured to securely couple to one or more components, the fastener assembly comprising: - a retaining clip ; and - a fluid-tight housing coupled to the retaining clip , wherein the fluid-tight housing is configured to provide fluid-tight interfaces with the retaining clip and the one or more components, wherein the fluid-tight housing is overmolded onto a portion of the retaining clip , characterized in that the fluid-tight housing comprises an outer cap and an outwardly-flared skirt extending from the cap , wherein a central clip channel is formed through the fluid tight housing , wherein the fluid-tight housing provides a cover that fits over and onto an upper portion of the retaining clip . - a retaining clip ; and - a fluid-tight housing coupled to the retaining clip , wherein the fluid-tight housing is configured to provide fluid-tight interfaces with the retaining clip and the one or more components, wherein the fluid-tight housing is overmolded onto a portion of the retaining clip , characterized in that the fluid-tight housing comprises an outer cap and an outwardly-flared skirt extending from the cap , wherein a central clip channel is formed through the fluid tight housing , wherein the fluid-tight housing provides a cover that fits over and onto an upper portion of the retaining clip .
A power transmission device comprising: a motor ; a transmission mechanism connected downstream of the motor ; a reduction gear arranged downstream of the transmission mechanism ; and a case member that houses the motor , the transmission mechanism , and the reduction gear , wherein the transmission mechanism has a band brake , and an actuator (ACT) that drives the band brake , and the case member has an outer circumference wall that surrounds a radial outer circumference of the transmission mechanism , characterized in that the case member has a side wall (143-Fig.2 and 7, 123-Fig.8) that is linked to the outer circumference wall , and that extends facing radially outward from the outer circumference wall , and the actuator (ACT) is provided adjacent to the outer circumference wall , and adjacent to the side wall (143-Fig.2 and 7, 123-Fig.8). a motor ; a transmission mechanism connected downstream of the motor ; a reduction gear arranged downstream of the transmission mechanism ; and a case member that houses the motor , the transmission mechanism , and the reduction gear , wherein the transmission mechanism has a band brake , and an actuator (ACT) that drives the band brake , and the case member has an outer circumference wall that surrounds a radial outer circumference of the transmission mechanism , characterized in that the case member has a side wall (143-Fig.2 and 7, 123-Fig.8) that is linked to the outer circumference wall , and that extends facing radially outward from the outer circumference wall , and the actuator (ACT) is provided adjacent to the outer circumference wall , and adjacent to the side wall (143-Fig.2 and 7, 123-Fig.8).
A method for forming an EUVL pellicle, the method comprising: coating a carbon nanotube, CNT, membrane, and mounting the CNT membrane to a pellicle frame, wherein coating the CNT membrane comprises: pre-coating CNTs of the membrane with a seed material, wherein the seed material is deposited at a rate of 0.7 Ångström/s or lower, and forming an outer coating on the pre-coated CNTs, the outer coating covering the pre-coated CNTs, the forming of the outer coating comprising depositing a coating material on the pre-coated CNTs by atomic layer deposition. coating a carbon nanotube, CNT, membrane, and mounting the CNT membrane to a pellicle frame, wherein coating the CNT membrane comprises: pre-coating CNTs of the membrane with a seed material, wherein the seed material is deposited at a rate of 0.7 Ångström/s or lower, and forming an outer coating on the pre-coated CNTs, the outer coating covering the pre-coated CNTs, the forming of the outer coating comprising depositing a coating material on the pre-coated CNTs by atomic layer deposition. pre-coating CNTs of the membrane with a seed material, wherein the seed material is deposited at a rate of 0.7 Ångström/s or lower, and forming an outer coating on the pre-coated CNTs, the outer coating covering the pre-coated CNTs, the forming of the outer coating comprising depositing a coating material on the pre-coated CNTs by atomic layer deposition.
A control device for a hybrid vehicle, the hybrid vehicle including: a manual transmission unit allowing a driver to manually select an arbitrary shift stage; an engine driving a drive wheel through the manual transmission unit ; a clutch enabling or disabling the transmission of power between the engine and the manual transmission unit ; and an electric motor , the control device including: a control unit switching an EV mode allowing the vehicle to run only using the electric motor as a drive source and an HEV mode allowing the vehicle to run using the engine and the electric motor as a drive source, wherein in the EV mode, the control unit allows the electric motor to generate driving power corresponding to driving power according to an accelerator operation, a clutch operation, and a shift operation of the driver in the HEV mode, and where the control device is characterized in that in the EV mode, the control unit allows the electric motor to generate a virtual driving vibration corresponding to a driving vibration when the engine drives the drive wheel in the HEV mode and a virtual engine vibration corresponding to a vibration generated by an inertial force of the engine in the HEV mode. a manual transmission unit allowing a driver to manually select an arbitrary shift stage; an engine driving a drive wheel through the manual transmission unit ; a clutch enabling or disabling the transmission of power between the engine and the manual transmission unit ; and an electric motor , the control device including: a control unit switching an EV mode allowing the vehicle to run only using the electric motor as a drive source and an HEV mode allowing the vehicle to run using the engine and the electric motor as a drive source, wherein in the EV mode, the control unit allows the electric motor to generate driving power corresponding to driving power according to an accelerator operation, a clutch operation, and a shift operation of the driver in the HEV mode, and where the control device is characterized in that in the EV mode, the control unit allows the electric motor to generate a virtual driving vibration corresponding to a driving vibration when the engine drives the drive wheel in the HEV mode and a virtual engine vibration corresponding to a vibration generated by an inertial force of the engine in the HEV mode. a control unit switching an EV mode allowing the vehicle to run only using the electric motor as a drive source and an HEV mode allowing the vehicle to run using the engine and the electric motor as a drive source, wherein in the EV mode, the control unit allows the electric motor to generate driving power corresponding to driving power according to an accelerator operation, a clutch operation, and a shift operation of the driver in the HEV mode, and where the control device is characterized in that in the EV mode, the control unit allows the electric motor to generate a virtual driving vibration corresponding to a driving vibration when the engine drives the drive wheel in the HEV mode and a virtual engine vibration corresponding to a vibration generated by an inertial force of the engine in the HEV mode.
An inventory control system comprising: a tool storage device including a drawer or a tray having a storage location for storing a target object ; and a display device configured to display information about the target object ; characterized by a processor configured to: receive a selection of a target object , identify a target location image associated with the target object , identify target object coordinates within the target location image , apply a visual contrast element to the target location image at the target object coordinates; and display on the display device the visual contrast element applied to the target location image at the target object coordinates on a display of the inventory control system to draw a user's attention to the target object , wherein the visual contrast element identifies the target object using graphics configured to draw the user's attention to the target object , the graphics include using a color, an animated cursor, contrasting focus, a movement, zoom effect, and/or background effect. a tool storage device including a drawer or a tray having a storage location for storing a target object ; and a display device configured to display information about the target object ; characterized by a processor configured to: receive a selection of a target object , identify a target location image associated with the target object , identify target object coordinates within the target location image , apply a visual contrast element to the target location image at the target object coordinates; and display on the display device the visual contrast element applied to the target location image at the target object coordinates on a display of the inventory control system to draw a user's attention to the target object , wherein the visual contrast element identifies the target object using graphics configured to draw the user's attention to the target object , the graphics include using a color, an animated cursor, contrasting focus, a movement, zoom effect, and/or background effect. receive a selection of a target object , identify a target location image associated with the target object , identify target object coordinates within the target location image , apply a visual contrast element to the target location image at the target object coordinates; and display on the display device the visual contrast element applied to the target location image at the target object coordinates on a display of the inventory control system to draw a user's attention to the target object , wherein the visual contrast element identifies the target object using graphics configured to draw the user's attention to the target object , the graphics include using a color, an animated cursor, contrasting focus, a movement, zoom effect, and/or background effect.
A composition for use in inducing a reversible loss of function in one or more peripheral nerves in a subject in need thereof, said composition comprising: a biocompatible ice slurry, wherein the reversible loss of function is a result of injecting the slurry into or around the one or more peripheral nerves for a duration sufficient to induce a loss of function in the one or more peripheral nerves in the subject, wherein said loss of function is reversible.