mhurhangee/patent-ind-claim-en huggingface dataset:
Storage system for storing a cryogenic medium, in particular for storing hydrogen, comprising a storage container for receiving the medium, wherein at least one pipe projects from outside the storage container into the storage container , wherein the pipe is closed at the end thereof directed away from the storage container and is open at the end thereof located in the storage container , wherein a shut-off valve is arranged on the pipe so that the inner space of the pipe is connected to the inner space of the storage container in a fluid-conducting manner when the shut-off valve is opened and the inner space of the pipe is not connected to the inner space of the storage container in a fluid-conducting manner when the shut-off valve is closed, wherein the external diameter of the pipe is small over the entire pipe length, wherein the pipe is configured to form thermo-acoustic oscillations and is thus part of a thermo-acoustic pressure build-up system, wherein the components of the thermo-acoustic pressure build-up system are limited to a thin pipeline of the pipe and the shut-off valve , wherein a liquid removal line is adapted to remove liquid medium from the storage container .
A group communication apparatus , applied to a system device, wherein the system device is located in a mobility management entity, MME, of a group communication system, GCS, in Long Term Evolution, LTE, wherein the GCS further comprises a local broadcast/multicast service center, L-BM-SC, and a multimedia broadcast/multicast service gateway, MBMS GW, deployed at a location of an evolved NodeB, eNB, of the GSC, wherein the L-BM-SC and the MBMS GW are deployed by establishing a new BM-SC and a new MBMS GW at the location of the eNB in addition to an BM-SC and an MBMS GW located in a core network of the GCS, and the group communication apparatus comprises: an obtaining module , configured to obtain location information of user equipment, UE; a first determining module , configured to: detect, according to the location information of the UE, whether an L-BM-SC is deployed at a location of an eNB to which the UE belongs; if an L-BM-SC is deployed at the location of the eNB to which the UE belongs, determine, according to the location information of the UE, a multi-cell/multicast coordination entity, MCE, that manages the eNB to which the UE belongs; a first sending module , configured to send a first bearer activation request to the MCE, wherein the first bearer activation request comprises the location information of the UE; a first receiving module , configured to receive a first bearer response message sent by the MCE, wherein the first bearer response message comprises an address of the first L-BM-SC; and a second determining module , configured to determine, according to the first bearer response message, that a bearer between the first L-BM-SC and the GCS AS is successfully established; wherein the bearer between the first L-BM-SC and a GCS AS is used by the GCS AS to send a packet to the first L-BM-SC. an obtaining module , configured to obtain location information of user equipment, UE; a first determining module , configured to: detect, according to the location information of the UE, whether an L-BM-SC is deployed at a location of an eNB to which the UE belongs; if an L-BM-SC is deployed at the location of the eNB to which the UE belongs, determine, according to the location information of the UE, a multi-cell/multicast coordination entity, MCE, that manages the eNB to which the UE belongs; a first sending module , configured to send a first bearer activation request to the MCE, wherein the first bearer activation request comprises the location information of the UE; a first receiving module , configured to receive a first bearer response message sent by the MCE, wherein the first bearer response message comprises an address of the first L-BM-SC; and a second determining module , configured to determine, according to the first bearer response message, that a bearer between the first L-BM-SC and the GCS AS is successfully established; wherein the bearer between the first L-BM-SC and a GCS AS is used by the GCS AS to send a packet to the first L-BM-SC.
An antenna device comprising first and second antennas provided in a common case of the antenna device , wherein the second antenna has a first plate-shaped part located above the first antenna in an upward-downward direction, wherein the first antenna has a center located below a center of the first plate-shaped part in a horizontal front-rear direction, and wherein an electrical length of the first plate-shaped part is an odd multiple of one-half a wavelength of the frequency band of the first antenna , wherein the horizontal front-rear direction is a longitudinal direction of the antenna device perpendicular to the upward-downward direction. wherein the second antenna has a first plate-shaped part located above the first antenna in an upward-downward direction, wherein the first antenna has a center located below a center of the first plate-shaped part in a horizontal front-rear direction, and wherein an electrical length of the first plate-shaped part is an odd multiple of one-half a wavelength of the frequency band of the first antenna , wherein the horizontal front-rear direction is a longitudinal direction of the antenna device perpendicular to the upward-downward direction.
A terminal device adapted to communicate with a base station device , the terminal station device comprising: a transmitting unit ; a receiving unit ; and a processing unit configured to receive, by Radio Resource Control, RRC, signaling: first information indicating a parameter regarding transmitting together of Synchronization Signal, SS, and Physical Broadcast Channel, PBCH, in a NR cell, wherein the parameter regarding the SS and the PBCH comprises a sub carrier interval common to the SS and the PBCH, and second information indicating a starting predetermined resource for a set of predetermined resources successive in a frequency direction where the SS and the PBCH are transmitted; and receive the SS and the PBCH based on the first information and the second information, wherein the SS includes a Primary Synchronization signal, PSS, and a Secondary Synchronization Signal, SSS, and wherein the set of predetermined resources successive in the frequency direction is expressed as a number of multiple subcarriers in the frequency direction. a transmitting unit ; a receiving unit ; and a processing unit configured to receive, by Radio Resource Control, RRC, signaling: first information indicating a parameter regarding transmitting together of Synchronization Signal, SS, and Physical Broadcast Channel, PBCH, in a NR cell, wherein the parameter regarding the SS and the PBCH comprises a sub carrier interval common to the SS and the PBCH, and second information indicating a starting predetermined resource for a set of predetermined resources successive in a frequency direction where the SS and the PBCH are transmitted; and receive the SS and the PBCH based on the first information and the second information, first information indicating a parameter regarding transmitting together of Synchronization Signal, SS, and Physical Broadcast Channel, PBCH, in a NR cell, wherein the parameter regarding the SS and the PBCH comprises a sub carrier interval common to the SS and the PBCH, and second information indicating a starting predetermined resource for a set of predetermined resources successive in a frequency direction where the SS and the PBCH are transmitted; and receive the SS and the PBCH based on the first information and the second information, wherein the SS includes a Primary Synchronization signal, PSS, and a Secondary Synchronization Signal, SSS, and wherein the set of predetermined resources successive in the frequency direction is expressed as a number of multiple subcarriers in the frequency direction.
A method of forming a resist pattern comprising: forming a resist film using a positive resist composition containing a solvent and a polymer including a monomer unit (A) represented by general formula (I), shown below, where, in general formula (I), R 1 is a chlorine atom, a fluorine atom, or a fluorine atom-substituted alkyl group, R 2 is an unsubstituted alkyl group or a fluorine atom-substituted alkyl group, and R 3 and R 4 are each a hydrogen atom, a fluorine atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group and may be the same or different, and a monomer unit (B) represented by general formula (II), shown below, where, in general formula (II), R 5 , R 6 , R 8 , and R 9 are each a hydrogen atom, a fluorine atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group and may be the same or different, R 7 is a hydrogen atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group, p and q are each an integer of at least 0 and not more than 5, and p + q = 5, with a proviso that at least one of the monomer unit (A) and the monomer unit (B) includes at least one fluorine atom; exposing the resist film; and developing the resist film that has been exposed, wherein the developing is carried out using a developer having a surface tension of 17 mN/m or less. forming a resist film using a positive resist composition containing a solvent and a polymer including a monomer unit (A) represented by general formula (I), shown below, where, in general formula (I), R 1 is a chlorine atom, a fluorine atom, or a fluorine atom-substituted alkyl group, R 2 is an unsubstituted alkyl group or a fluorine atom-substituted alkyl group, and R 3 and R 4 are each a hydrogen atom, a fluorine atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group and may be the same or different, and a monomer unit (B) represented by general formula (II), shown below, where, in general formula (II), R 5 , R 6 , R 8 , and R 9 are each a hydrogen atom, a fluorine atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group and may be the same or different, R 7 is a hydrogen atom, an unsubstituted alkyl group, or a fluorine atom-substituted alkyl group, p and q are each an integer of at least 0 and not more than 5, and p + q = 5, with a proviso that at least one of the monomer unit (A) and the monomer unit (B) includes at least one fluorine atom; exposing the resist film; and developing the resist film that has been exposed, wherein the developing is carried out using a developer having a surface tension of 17 mN/m or less.
A display system comprising: an imaging device comprising: a projection optic , , , arranged to form a virtual image of a real image; a first diffuser , positioned a first distance from the projection optic; a second diffuser positioned a second distance from the projection optic; and a controller arranged to control the first and second diffusers to make the real image visible on one of the diffusers; and a holographic projector , , comprising a spatial light modulator arranged to apply a phase-delay distribution to incident light to form the real image, wherein the phase-delay distribution comprises phase data representative of a lens and phase data representative of the real image. an imaging device comprising: a projection optic , , , arranged to form a virtual image of a real image; a first diffuser , positioned a first distance from the projection optic; a second diffuser positioned a second distance from the projection optic; and a controller arranged to control the first and second diffusers to make the real image visible on one of the diffusers; and a projection optic , , , arranged to form a virtual image of a real image; a first diffuser , positioned a first distance from the projection optic; a second diffuser positioned a second distance from the projection optic; and a controller arranged to control the first and second diffusers to make the real image visible on one of the diffusers; and a holographic projector , , comprising a spatial light modulator arranged to apply a phase-delay distribution to incident light to form the real image, wherein the phase-delay distribution comprises phase data representative of a lens and phase data representative of the real image.
A method for operating a smart home device mounted at a structure, the method comprising: monitoring by the device an aspect of the structure; enabling user interaction with the device, including providing one or more users with information related to the aspect; measuring an operating temperature of the device; determining that the operating temperature has crossed a temperature threshold; and altering operation of the device in response to determining that the operating temperature has crossed the temperature threshold, including altering one or more functions of the device having secondary effects of generating or decreasing heat that change the operating temperature of the device, comprising: (i) generate heat when a low temperature threshold has been crossed, including: activating one or more on-board heaters, activating one or more visible-spectrum lights, activating an on-board display, activating one or more infrared LEDs, activating one-or more on-board speaker, and/or increasing a power level of an on-board wireless transceiver, or (ii) decrease an amount of heat when a high temperature threshold has been crossed, including: activating a fan, decreasing power of a wireless transceiver, and/or adapting a charging cycle of a battery. monitoring by the device an aspect of the structure; enabling user interaction with the device, including providing one or more users with information related to the aspect; measuring an operating temperature of the device; determining that the operating temperature has crossed a temperature threshold; and altering operation of the device in response to determining that the operating temperature has crossed the temperature threshold, including altering one or more functions of the device having secondary effects of generating or decreasing heat that change the operating temperature of the device, comprising: (i) generate heat when a low temperature threshold has been crossed, including: activating one or more on-board heaters, activating one or more visible-spectrum lights, activating an on-board display, activating one or more infrared LEDs, activating one-or more on-board speaker, and/or increasing a power level of an on-board wireless transceiver, or (ii) decrease an amount of heat when a high temperature threshold has been crossed, including: activating a fan, decreasing power of a wireless transceiver, and/or adapting a charging cycle of a battery. (i) generate heat when a low temperature threshold has been crossed, including: activating one or more on-board heaters, activating one or more visible-spectrum lights, activating an on-board display, activating one or more infrared LEDs, activating one-or more on-board speaker, and/or increasing a power level of an on-board wireless transceiver, or (ii) decrease an amount of heat when a high temperature threshold has been crossed, including: activating a fan, decreasing power of a wireless transceiver, and/or adapting a charging cycle of a battery.
A method for separating a rod-like or tubular object made of a brittle material, especially of glass, in which at first at least one circumferential notch is made on the surface of the object at a predetermined point, whereupon a force impulse or impulses is/are applied to the fixed object, characterized in that in order to separate a part of the divided object, the surface of the circumferential notch and/or its surroundings is brought into contact with an annulus of a main stream of a fluid which is put into a defined variable speed motion, whereby a change in the speed of the main fluid stream causes a local drop in the pressure of the fluid to form vacuum-filled cavities, and after inducing a sudden increase in the pressure of the fluid, implosion of these cavities occurs, accompanied by a shock pressure wave in the fluid annulus , which causes separation of the part of the tube in the region weakened by the circumferential notch .
A turbine component comprising: a root ; and an airfoil extending from the root to a tip opposite the root , the airfoil forming a leading edge and a trailing edge portion extending to a trailing edge ; wherein a plurality of nested cooling channels in the trailing edge portion of the airfoil permit passage of a cooling fluid from an interior of the turbine component to an exterior of the turbine component at the trailing edge portion , the plurality of nested cooling channels being fluidly isolated from each other; characterised in that the turbine component comprises a first section and a second section , the first section and the second section being formed by metal three-dimensional printing, the first section including a suction side having a convex outer surface and the second section including a pressure side having a concave outer surface, with at least a portion of the nested cooling channels being formed at one or both of the surfaces of the first and second sections . a root ; and an airfoil extending from the root to a tip opposite the root , the airfoil forming a leading edge and a trailing edge portion extending to a trailing edge ; wherein a plurality of nested cooling channels in the trailing edge portion of the airfoil permit passage of a cooling fluid from an interior of the turbine component to an exterior of the turbine component at the trailing edge portion , the plurality of nested cooling channels being fluidly isolated from each other; characterised in that the turbine component comprises a first section and a second section , the first section and the second section being formed by metal three-dimensional printing, the first section including a suction side having a convex outer surface and the second section including a pressure side having a concave outer surface, with at least a portion of the nested cooling channels being formed at one or both of the surfaces of the first and second sections .
A flexible impeller for use in a flexible impeller pump comprising a body and a plurality of vanes extending outwardly from the body , wherein each vane comprises a root and a tip and at least two sealing elements , wherein the first seal element is provided at the tip of the vane and a second seal element is provided between the tip and the root of the vane , characterised in that the second seal element comprises a protrusion at least from the leading side of the vane .
Lighting and/or signaling device , notably for vehicles, having an optical axis (Ox) and including light sources and a lens , characterized in that : - it includes a plurality of light ray guides (N) arranged between said light sources and the lens so that light rays emitted by the light sources in the guide (N) propagate in the guides (N) to reach the lens and on emerging from the lens have a substantially horizontal direction containing the optical axis (Ox) of said device ; - each light ray guide (N) is formed by a guide plate comprising a light entry face , a light exit face and a reflection face having an elliptical profile toward the rear adapted to assure reflection of light rays entering the plate through the light entry face toward a focus point (F) located at the level of the light exit face of said plate ; - said plurality of light ray guides are associated each with a light source , this light source being disposed at the level of an entry face of the associated plate , the plates being arranged in a fan, the plates being tangential at the level of their exit face and diverging progressively to produce a spacing between each light source . - it includes a plurality of light ray guides (N) arranged between said light sources and the lens so that light rays emitted by the light sources in the guide (N) propagate in the guides (N) to reach the lens and on emerging from the lens have a substantially horizontal direction containing the optical axis (Ox) of said device ; - each light ray guide (N) is formed by a guide plate comprising a light entry face , a light exit face and a reflection face having an elliptical profile toward the rear adapted to assure reflection of light rays entering the plate through the light entry face toward a focus point (F) located at the level of the light exit face of said plate ; - said plurality of light ray guides are associated each with a light source , this light source being disposed at the level of an entry face of the associated plate , the plates being arranged in a fan, the plates being tangential at the level of their exit face and diverging progressively to produce a spacing between each light source .
A heat pump for a swimming pool or spa comprising a body and a cap repositionable relative to the body, with the cap comprising a human-machine interface (HMI) , characterized in that the cap is repositionable in its orientation to align the human-machine interface (HMI) with a corner of the body of the heat pump .
A radar module for process automation comprising: - a radar signal source configured to generate and to emit a radar signal, - a dielectric radar signal conductor mounted at the radar signal source and configured to receive the radar signal, - a waveguide , the waveguide having an opening , wherein the opening establishes an axial direction (Y), wherein the radar signal conductor protrudes into the opening of the waveguide such that the waveguide and the radar signal conductor form an overlap (Z) along the axial direction (Y) for coupling the radar signal into the waveguide , characterized in that the waveguide is mechanically decoupled from the radar signal source and/or the radar signal conductor . - a radar signal source configured to generate and to emit a radar signal, - a dielectric radar signal conductor mounted at the radar signal source and configured to receive the radar signal, - a waveguide , the waveguide having an opening , wherein the opening establishes an axial direction (Y), wherein the radar signal conductor protrudes into the opening of the waveguide such that the waveguide and the radar signal conductor form an overlap (Z) along the axial direction (Y) for coupling the radar signal into the waveguide , characterized in that the waveguide is mechanically decoupled from the radar signal source and/or the radar signal conductor .