mhurhangee/ep-ind-claims huggingface dataset:
A fixation system for engaging tissue comprising a valve leaflet comprising: a fixation device comprising at least two proximal and at least two distal elements, each distal element having a first end, a free end opposite the first end, an engagement surface therebetween for engaging the tissue and a longitudinal axis extending between the first and free end, the proximal and distal elements being moveable relative to each other and configured to capture tissue between the proximal elements and the engagement surfaces of the distal elements, the first ends of the at least two distal elements being movably coupled together such that the at least two distal elements are moveable to engage tissue with the engagement surfaces; and characterised by an accessory comprising a support having at least two planar sections and coupleable with the fixation device, each planar section configured to mate with an engagement surface of a distal element when coupled, the support being configured so that each planar section is positionable against an upstream surface of the valve leaflet while each distal element is positionable against a downstream surface of the valve leaflet. a fixation device comprising at least two proximal and at least two distal elements, each distal element having a first end, a free end opposite the first end, an engagement surface therebetween for engaging the tissue and a longitudinal axis extending between the first and free end, the proximal and distal elements being moveable relative to each other and configured to capture tissue between the proximal elements and the engagement surfaces of the distal elements, the first ends of the at least two distal elements being movably coupled together such that the at least two distal elements are moveable to engage tissue with the engagement surfaces; and characterised by an accessory comprising a support having at least two planar sections and coupleable with the fixation device, each planar section configured to mate with an engagement surface of a distal element when coupled, the support being configured so that each planar section is positionable against an upstream surface of the valve leaflet while each distal element is positionable against a downstream surface of the valve leaflet.
Arrangement of cable bundles (10, 20, 30), in particular for a rail vehicle, the arrangement comprising a first, a second, and at least one further cable bundle (10, 20, 30), one of the cable bundles (10, 20) being arranged between two further cable bundles (10, 20, 30) in at least one subsection, characterised in that in the at least one subsection of the arrangement, at least one of the cable bundles (10, 20), but not all of the cable bundles (10, 20, 30), has at least one EMC shielding element, the cable bundle (10, 20) arranged between the two further cable bundles (10, 20, 30) forming a shielding cable bundle and the two further cable bundles (10, 20, 30) each forming an edge cable bundle, the shielding cable bundle having an EMC shielding element, and a diameter of the shielding cable bundle being larger than a diameter of the edge cable bundles.
Pouch collection robot system for the collection of non-filled spouted pouches to be transported to a remote filling device, comprising: - a conveyor adapted to receive the non-filled spouted pouches; - a camera system provided adjacent the conveyor, operable to perform visual observations on the conveyor, thereby identifying the non-filled spouted pouches, - multiple storage rails embodied to hold a plurality of non-filled spouted pouches by engaging on their spouts, which storage rails are positioned adjacent the conveyor; - at least one pick and place robot unit, each unit comprising: ∘ a gripping device, comprising at least one gripper that is adapted to pick up a non-filled spouted pouch from the conveyor, and to place the non-filled spouted pouch into alignment with one of the multiple storage rails, allowing the non-filled spouted pouch to be placed into the storage rail, ∘ a robot arm connected to the gripping device, adapted to transport the gripping device, - a controller adapted to control the at least one pick and place robot unit on the basis of a stacking program and the observations from the camera system. - a conveyor adapted to receive the non-filled spouted pouches; - a camera system provided adjacent the conveyor, operable to perform visual observations on the conveyor, thereby identifying the non-filled spouted pouches, - multiple storage rails embodied to hold a plurality of non-filled spouted pouches by engaging on their spouts, which storage rails are positioned adjacent the conveyor; - at least one pick and place robot unit, each unit comprising: ∘ a gripping device, comprising at least one gripper that is adapted to pick up a non-filled spouted pouch from the conveyor, and to place the non-filled spouted pouch into alignment with one of the multiple storage rails, allowing the non-filled spouted pouch to be placed into the storage rail, ∘ a robot arm connected to the gripping device, adapted to transport the gripping device, ∘ a gripping device, comprising at least one gripper that is adapted to pick up a non-filled spouted pouch from the conveyor, and to place the non-filled spouted pouch into alignment with one of the multiple storage rails, allowing the non-filled spouted pouch to be placed into the storage rail, ∘ a robot arm connected to the gripping device, adapted to transport the gripping device, - a controller adapted to control the at least one pick and place robot unit on the basis of a stacking program and the observations from the camera system.
A laundry treating apparatus comprising: a cabinet; a drum accommodated in the cabinet; a tub accommodating the drum; and a dynamic absorber provided to absorb oscillation of the cabinet during use of the laundry treatment apparatus, wherein the dynamic absorber comprises: a support plate coupled to the cabinet; a moving mass movably disposed on the support plate to absorb oscillation transmitted to the cabinet; and a support disposed between the support plate and the moving mass; characterized in that the support comes into line or point contact with a bottom surface of the moving mass so that the moving mass has an attenuation ratio. a cabinet; a drum accommodated in the cabinet; a tub accommodating the drum; and a dynamic absorber provided to absorb oscillation of the cabinet during use of the laundry treatment apparatus, wherein the dynamic absorber comprises: a support plate coupled to the cabinet; a moving mass movably disposed on the support plate to absorb oscillation transmitted to the cabinet; and a support disposed between the support plate and the moving mass; characterized in that the support comes into line or point contact with a bottom surface of the moving mass so that the moving mass has an attenuation ratio. a support plate coupled to the cabinet; a moving mass movably disposed on the support plate to absorb oscillation transmitted to the cabinet; and a support disposed between the support plate and the moving mass; characterized in that the support comes into line or point contact with a bottom surface of the moving mass so that the moving mass has an attenuation ratio.
A light emitting device package comprising: a body part provided therein with a cavity; a light emitting chip in the cavity; a cover part to cover the cavity; a light conversion part provided on a bottom surface of the cover part while being separated from the light emitting chip; a heat transfer layer interposed between the light conversion part and the light emitting chip an air layer interposed between the light emitting chip and the heat transfer layer; and a heat radiation part connected to the heat transfer layer, wherein the heat transfer layer represents thermal conductivity higher than thermal conductivity of the air layer, wherein the body part includes a base part and an outer wall, and the base part supports the outer wall, and the outer wall is provided on the base part, and the cavity is defined by the outer wall, wherein the heat radiation part extends from the inner part of the cavity to the outside of the body part through the outer wall, wherein the heat radiating upward from the light emitting chip is emitted in a lateral direction by the heat transfer layer and the heat radiation part, wherein the light conversion part directly makes contact with the bottom surface of the cover part, wherein the light conversion part comprises: a host directly making contact with the bottom surface of the cover part; and a plurality of quantum dots in the host. a body part provided therein with a cavity; a light emitting chip in the cavity; a cover part to cover the cavity; a light conversion part provided on a bottom surface of the cover part while being separated from the light emitting chip; a heat transfer layer interposed between the light conversion part and the light emitting chip an air layer interposed between the light emitting chip and the heat transfer layer; and a heat radiation part connected to the heat transfer layer, wherein the heat transfer layer represents thermal conductivity higher than thermal conductivity of the air layer, wherein the body part includes a base part and an outer wall, and the base part supports the outer wall, and the outer wall is provided on the base part, and the cavity is defined by the outer wall, wherein the heat radiation part extends from the inner part of the cavity to the outside of the body part through the outer wall, wherein the heat radiating upward from the light emitting chip is emitted in a lateral direction by the heat transfer layer and the heat radiation part, wherein the light conversion part directly makes contact with the bottom surface of the cover part, wherein the light conversion part comprises: a host directly making contact with the bottom surface of the cover part; and a plurality of quantum dots in the host. a host directly making contact with the bottom surface of the cover part; and a plurality of quantum dots in the host.
Method of calculating an activity index of an individual implemented by the intermediary of an index calculation device, method characterised in that it comprises: - a step of obtaining, from an original audio/video flow (FlvO), at least two flows (x1, x2, x3), each one comprising multiple time-stamped samples, said obtaining step comprising: - a step of obtaining data representative of an eye condition, delivering a flow comprising samples relating to the opening of the eyes of said individual, - a step of formatting said at least two flows (x1, x2, x3), delivering at least two formatted flows (x1f, x2f, x3f); - a step of combining said at least two formatted flows, delivering a combined flow (xc); - a step of calculating, from said combined flow (xc), at least one index representative of a level of activity of an individual (IrNA). - a step of obtaining, from an original audio/video flow (FlvO), at least two flows (x1, x2, x3), each one comprising multiple time-stamped samples, said obtaining step comprising: - a step of obtaining data representative of an eye condition, delivering a flow comprising samples relating to the opening of the eyes of said individual, - a step of obtaining data representative of an eye condition, delivering a flow comprising samples relating to the opening of the eyes of said individual, - a step of formatting said at least two flows (x1, x2, x3), delivering at least two formatted flows (x1f, x2f, x3f); - a step of combining said at least two formatted flows, delivering a combined flow (xc); - a step of calculating, from said combined flow (xc), at least one index representative of a level of activity of an individual (IrNA).
An air-conditioning system comprising: an outside air processing device configured to adjust at least a temperature of outside air taken into the outside air processing device to supply the outside air to a target space (SP1, SP2); and an air-conditioning device configured to adjust at least a temperature of air in the target space (SP1, SP2), characterized in that: if a temperature/humidity state that is at least either the temperature or a humidity of the air in the target space (SP1, SP2) is within a predetermined range, and if a load factor of at least one of the outside air processing device or the air-conditioning device is below a predetermined lower limit, an operation of either one of the outside air processing device or the air-conditioning device is stopped, and the air-conditioning system obtains load factors of both the outside air processing device and the air-conditioning device, and the load factor of each of the outside air processing device and the air-conditioning device is the ratio of a present processing capacity to a rated capacity, alternatively, the load factor of the outside air processing device is a load factor of a chiller unit serving as a heat source of the outside air processing device, and the load factor of the air-conditioning device is a load factor of an outdoor unit serving as a heat source of the air-conditioning device, and the lower limit of the load factor is set independently for each of the outside air processing device and the air-conditioning device in consideration of a decrease in the coefficient of performance and other factors. an outside air processing device configured to adjust at least a temperature of outside air taken into the outside air processing device to supply the outside air to a target space (SP1, SP2); and an air-conditioning device configured to adjust at least a temperature of air in the target space (SP1, SP2), characterized in that: if a temperature/humidity state that is at least either the temperature or a humidity of the air in the target space (SP1, SP2) is within a predetermined range, and if a load factor of at least one of the outside air processing device or the air-conditioning device is below a predetermined lower limit, an operation of either one of the outside air processing device or the air-conditioning device is stopped, and the air-conditioning system obtains load factors of both the outside air processing device and the air-conditioning device, and the load factor of each of the outside air processing device and the air-conditioning device is the ratio of a present processing capacity to a rated capacity, alternatively, the load factor of the outside air processing device is a load factor of a chiller unit serving as a heat source of the outside air processing device, and the load factor of the air-conditioning device is a load factor of an outdoor unit serving as a heat source of the air-conditioning device, and the lower limit of the load factor is set independently for each of the outside air processing device and the air-conditioning device in consideration of a decrease in the coefficient of performance and other factors.
A host device for facilitating either Ethernet communications or universal serial bus, USB communications with an external device over a USB connection, the host device comprising: a processor for generating data to be transmitted to the external device; an Ethernet media access control, MAC circuit coupled to the processor; a USB controller coupled to the processor; a USB port to couple to the external device via the USB connection; a detection circuit to generate a mode select signal according to a USB mode in response to determining that the external device is a USB device or according to an Ethernet mode in response to determining that the external device is an Ethernet device; and a transceiver including: first terminals coupled to the USB port; and second terminals coupled to either the Ethernet MAC circuit or to the USB controller in response to a mode select signal, wherein during the USB mode the transceiver and the USB port together are to operate as an interface compliant with a USB standard, and wherein during the Ethernet mode the transceiver is to operate as a MAC-side media independent interface, MII, compliant with an Ethernet standard. a processor for generating data to be transmitted to the external device; an Ethernet media access control, MAC circuit coupled to the processor; a USB controller coupled to the processor; a USB port to couple to the external device via the USB connection; a detection circuit to generate a mode select signal according to a USB mode in response to determining that the external device is a USB device or according to an Ethernet mode in response to determining that the external device is an Ethernet device; and a transceiver including: first terminals coupled to the USB port; and second terminals coupled to either the Ethernet MAC circuit or to the USB controller in response to a mode select signal, first terminals coupled to the USB port; and second terminals coupled to either the Ethernet MAC circuit or to the USB controller in response to a mode select signal, wherein during the USB mode the transceiver and the USB port together are to operate as an interface compliant with a USB standard, and wherein during the Ethernet mode the transceiver is to operate as a MAC-side media independent interface, MII, compliant with an Ethernet standard.
A suspension for a train of a vehicle having wheels adapted to roll, said device comprising a spring and a shock absorber connected in parallel, and comprises further i) an inertial circuit comprising at least a first pipe having predefined length and section, and capable of producing fluid inertia in a controlled manner, ii) a jack mounted in parallel with said springs and shock absorber and comprising a chamber coupled to said first pipe, and iii) means of control adapted to control OLER the said fluid inertia generated by said inertial circuit as a function of at least one information representative of a current value of at least one chosen parameter of the vehicle, said first pipe comprises first and second ends respectively coupled to inlets/outlets of said chamber and of a fluid reservoir (RF, CH'), and said control means comprises first action means installed between said inlets/outlets of the chamber and of said fluid reservoir (RF, CH') in order to control the connection/disconnection of said first pipe, said inertial circuit including a second pipe having predetermined length and section, and having a first end connected to said second end of the first pipe and a second end coupled to said input/output of the fluid reservoir (RF, CH'), said control means include an ant also second means of action installed between said first end of the second pipe and said input/output of the fluid reservoir (RF, CH') to control the connection/disconnection of said second pipe, characterized in that said inertial circuit comprises a third pipe having predefined length and section, and having a first end connected to said second end of the second pipe and a second end coupled to said inlet/outlet of the fluid reservoir (RF, CH'), and in that said control means also comprise third action means installed between said first end of the third pipe and said inlet/outlet of the fluid reservoir (RF, CH') in order to control the connection/disconnection of said third pipe.
A grain-oriented electrical steel sheet, which has a surface which is formed with grooves for a magnetic domain refinement treatment, wherein the grooves comprise a scattering alloy layer that is erodible in a Goss texture during a recrystallization annealing process characterized in that when a thickness of the scattering alloy layer on a bottom surface of the groove is defined as T B, and a thickness of the scattering alloy layer at a point that is one-half the distance between any one end of the groove and the bottom surface of the groove is defined as T L, T B /T L is 0.2 to 0.8.
A rotating machine comprising: a rotating body configured to rotate around a central axis, and a casing (10, 31) configured to accommodate at least a part of the rotating body, wherein the casing (10, 31) includes a main section (16L, 36L) made of a metallic material, and a high-porosity section (16H, 36H, 116H, 136H, 236H) made of the same material as the main section (16L, 36L) and having a porosity higher than the main section (16L, 36L), the main section (16L, 36L) is formed by completely melting a material powder of the metallic material and thereafter cooling and solidifying the melted metallic powder, the high-porosity section (16H, 36H, 116H, 136H, 236H) is formed with the material powder remaining in a partially or completely unmelted state, characterized in that the material powder is present in the high-porosity section (16H, 36H, 116H, 136H, 236H) of the rotating machine. a rotating body configured to rotate around a central axis, and a casing (10, 31) configured to accommodate at least a part of the rotating body, wherein the casing (10, 31) includes a main section (16L, 36L) made of a metallic material, and a high-porosity section (16H, 36H, 116H, 136H, 236H) made of the same material as the main section (16L, 36L) and having a porosity higher than the main section (16L, 36L), the main section (16L, 36L) is formed by completely melting a material powder of the metallic material and thereafter cooling and solidifying the melted metallic powder, the high-porosity section (16H, 36H, 116H, 136H, 236H) is formed with the material powder remaining in a partially or completely unmelted state, characterized in that the material powder is present in the high-porosity section (16H, 36H, 116H, 136H, 236H) of the rotating machine.