mhurhangee/patent-ind-claim-en huggingface dataset:
An installation configured for crystallizing and drying granular polymer material with a low level of crystallinity, that is a level of crystallinity less than a threshold value below which the granular polymer material can involve the formation of blocks of granules during the drying process, wherein the level of crystallinity is defined as the weight fraction of polymer in the crystalline state with respect to the total polymer mass, comprising: - at least one crystallization hopper which is connected to a crystallization line , via which there is introduced into the crystallization hopper a first gas flow which is heated to a first temperature which is suitable for increasing the level of crystallinity of the granular polymer material; - an agitation member which is associated with the crystallization hopper and which is provided to maintain the granular material in an agitated state inside the crystallization hopper ; - at least one heating hopper which is arranged downstream of the crystallization hopper and which is provided with a heating unit which is provided to heat the crystallized granular polymer material to a second temperature which is greater than the first temperature, - at least one drying hopper which is arranged downstream of the heating hopper and which is connected to a depressurization circuit which is provided to obtain in the drying hopper a predefined level of pressure reduction and to dry the granular polymer material, - at least one supply hopper which is arranged downstream of the drying hopper and upstream of a transformation machine for the granular polymer material. - at least one crystallization hopper which is connected to a crystallization line , via which there is introduced into the crystallization hopper a first gas flow which is heated to a first temperature which is suitable for increasing the level of crystallinity of the granular polymer material; - an agitation member which is associated with the crystallization hopper and which is provided to maintain the granular material in an agitated state inside the crystallization hopper ; - at least one heating hopper which is arranged downstream of the crystallization hopper and which is provided with a heating unit which is provided to heat the crystallized granular polymer material to a second temperature which is greater than the first temperature, - at least one drying hopper which is arranged downstream of the heating hopper and which is connected to a depressurization circuit which is provided to obtain in the drying hopper a predefined level of pressure reduction and to dry the granular polymer material, - at least one supply hopper which is arranged downstream of the drying hopper and upstream of a transformation machine for the granular polymer material.
Fuse having an integrated measurement function, - having a fuse housing , - having a fuse element , - having a measurement device , which has a transformer and also an electronics assembly electrically conductively connected to the transformer , characterized - in that the fuse housing has a first reception space bounded by a pressure body and also a second reception space physically delimited from the first reception space , - in that the fuse element is received and held in the first reception space , - in that the measurement device is received and held in the second reception space , - in that the height (h) of the transformer in a direction of longitudinal extent (L) of the fuse element corresponds substantially to the height of the second reception space , and - in that the electronics assembly is arranged laterally to the transformer in a direction orthogonal to the direction of longitudinal extent (L) of the fuse element . - having a fuse housing , - having a fuse element , - having a measurement device , which has a transformer and also an electronics assembly electrically conductively connected to the transformer , - in that the fuse housing has a first reception space bounded by a pressure body and also a second reception space physically delimited from the first reception space , - in that the fuse element is received and held in the first reception space , - in that the measurement device is received and held in the second reception space , - in that the height (h) of the transformer in a direction of longitudinal extent (L) of the fuse element corresponds substantially to the height of the second reception space , and - in that the electronics assembly is arranged laterally to the transformer in a direction orthogonal to the direction of longitudinal extent (L) of the fuse element . - in that the electronics assembly is arranged laterally to the transformer in a direction orthogonal to the direction of longitudinal extent (L) of the fuse element .
A combined insulated glazing and Venetian blind system , said insulated glazing comprising two glass panes and a spacer element, said two glass panes and said spacer element defining a closed volume, said Venetian blind being situated within said closed volume, said Venetian blind comprising an upper structure , a plurality of slats , each comprising at least two through holes , and at least two lift cords , operably associated with said upper structure , which extend through said holes of said slats and are operably configured to allow said slats to move between a stowed position, in which said slats accumulate proximate to said upper structure and a deployed position, characterized in that said lift cords comprise an inner core enclosed in an outer braid , said inner core being made of heat-set polyester and said outer braid being made of ultra-high molecular weight polyethylene fibers (UHMWPE).
A piezoelectric actuator , comprising: a suspension plate , wherein the suspension plate is a square structure and the suspension plate is permitted to undergo a curvy vibration from a middle portion to a periphery portion ; an outer frame arranged around the suspension plate ; at least one bracket connected between the suspension plate and the outer frame for elastically supporting the suspension plate ; and a piezoelectric ceramic plate , wherein the piezoelectric ceramic plate is a square structure, a length of the piezoelectric ceramic plate is not larger than a length of the suspension plate , and the piezoelectric ceramic plate is attached on a first surface of the suspension plate , wherein when a voltage is applied to the piezoelectric ceramic plate , the suspension plate is driven to undergo the curvy vibration; characterized in that a length of the suspension plate is in a range between 7.5mm and 12mm. a suspension plate , wherein the suspension plate is a square structure and the suspension plate is permitted to undergo a curvy vibration from a middle portion to a periphery portion ; an outer frame arranged around the suspension plate ; at least one bracket connected between the suspension plate and the outer frame for elastically supporting the suspension plate ; and a piezoelectric ceramic plate , wherein the piezoelectric ceramic plate is a square structure, a length of the piezoelectric ceramic plate is not larger than a length of the suspension plate , and the piezoelectric ceramic plate is attached on a first surface of the suspension plate , wherein when a voltage is applied to the piezoelectric ceramic plate , the suspension plate is driven to undergo the curvy vibration; characterized in that a length of the suspension plate is in a range between 7.5mm and 12mm.
An ultrasonic probe comprising: a piezoelectric layer that vibrates and generates ultrasonic waves if a current is supplied to the piezoelectric layer ; a thermoelectric element that contacts one surface of an application specific integrated circuit (ASIC, 11a) and controls the temperature of the piezoelectric layer if a current is supplied to the thermoelectric element , with the bottom surface of the thermoelectric element being a heat dissipation plate and the top surface of the thermoelectric element being a heat absorption plate, and the ASIC being disposed between the piezoelectric layer and the thermoelectric element , wherein the ASIC makes surface contact with the bottom surface of the piezoelectric layer and is configured to control a current transmitted to the piezoelectric layer ; a shared signal electrode disposed on the bottom surface of the thermoelectric element and configured to supply current; a shared ground electrode disposed on the upper surface of the piezoelectric layer and configured to discharge current flowing through the ASIC , the thermoelectric element and the piezoelectric layer . a piezoelectric layer that vibrates and generates ultrasonic waves if a current is supplied to the piezoelectric layer ; a thermoelectric element that contacts one surface of an application specific integrated circuit (ASIC, 11a) and controls the temperature of the piezoelectric layer if a current is supplied to the thermoelectric element , with the bottom surface of the thermoelectric element being a heat dissipation plate and the top surface of the thermoelectric element being a heat absorption plate, and the ASIC being disposed between the piezoelectric layer and the thermoelectric element , wherein the ASIC makes surface contact with the bottom surface of the piezoelectric layer and is configured to control a current transmitted to the piezoelectric layer ; a shared signal electrode disposed on the bottom surface of the thermoelectric element and configured to supply current; a shared ground electrode disposed on the upper surface of the piezoelectric layer and configured to discharge current flowing through the ASIC , the thermoelectric element and the piezoelectric layer .
A method for Quality of Experience, QoE, management on a network, the method comprising: determining a set of service categories for a network operator's traffic, wherein at least one of the service categories is video streaming; mapping a plurality of traffic flows to each of the service categories; determining a target and minimum bandwidth intent for each of the service categories for the network operator, wherein the minimum bandwidth intent is an expected QoE for the service category for the network operator; measuring a score and bandwidth use for each of the service category; determining whether each of the service categories are meeting an associated minimum bandwidth intent; if the minimum bandwidth intent is not being met for at least one service category, reducing the minimum bandwidth intent for at least the video streaming service categories; allocating a bandwidth per service category based on the reduced minimum bandwidth intent; and shaping the traffic flow per service category to the allocated bandwidth; otherwise allowing the traffic flow per service category to continue with a current bandwidth allocation. determining a set of service categories for a network operator's traffic, wherein at least one of the service categories is video streaming; mapping a plurality of traffic flows to each of the service categories; determining a target and minimum bandwidth intent for each of the service categories for the network operator, wherein the minimum bandwidth intent is an expected QoE for the service category for the network operator; measuring a score and bandwidth use for each of the service category; determining whether each of the service categories are meeting an associated minimum bandwidth intent; if the minimum bandwidth intent is not being met for at least one service category, reducing the minimum bandwidth intent for at least the video streaming service categories; allocating a bandwidth per service category based on the reduced minimum bandwidth intent; and shaping the traffic flow per service category to the allocated bandwidth; otherwise allowing the traffic flow per service category to continue with a current bandwidth allocation. if the minimum bandwidth intent is not being met for at least one service category, reducing the minimum bandwidth intent for at least the video streaming service categories; allocating a bandwidth per service category based on the reduced minimum bandwidth intent; and shaping the traffic flow per service category to the allocated bandwidth; otherwise allowing the traffic flow per service category to continue with a current bandwidth allocation.
A method performed by a wireless device for transmitting a transport block, the method comprising: obtaining a first uplink aggregation factor, wherein the first uplink aggregation factor is an integer value greater than one; obtaining a second uplink aggregation factor, wherein the second uplink aggregation factor is an integer value greater than one, and the second uplink aggregation factor is different than the first uplink aggregation factor; determining that a transport block is associated with a type of radio network temporary identifier, RNTI; selecting one of: the first uplink aggregation factor, the second uplink aggregation factor, or no uplink aggregation factor based on the type of RNTI associated with the transport block, wherein no uplink aggregation factor is selected for transport blocks associated with at least one of: random access RNTI, RA-RNTI, system information RNTI, SI-RNTI, and paging RNTI, P-RNTI; and transmitting the transport block on a physical uplink shared channel, PUSCH, according to the selected uplink aggregation factor. obtaining a first uplink aggregation factor, wherein the first uplink aggregation factor is an integer value greater than one; obtaining a second uplink aggregation factor, wherein the second uplink aggregation factor is an integer value greater than one, and the second uplink aggregation factor is different than the first uplink aggregation factor; determining that a transport block is associated with a type of radio network temporary identifier, RNTI; selecting one of: the first uplink aggregation factor, the second uplink aggregation factor, or no uplink aggregation factor based on the type of RNTI associated with the transport block, wherein no uplink aggregation factor is selected for transport blocks associated with at least one of: random access RNTI, RA-RNTI, system information RNTI, SI-RNTI, and paging RNTI, P-RNTI; and transmitting the transport block on a physical uplink shared channel, PUSCH, according to the selected uplink aggregation factor.
An anti-jamming device for an energy storage handle of a universal circuit breaker, comprising a circuit breaker body , and an operating mechanism mounted on one side of the circuit breaker body ; the energy storage handle is mounted on the outside wall of one side of the operating mechanism ; the energy storage handle is rotated to manually store energy for the operating mechanism ; the operating mechanism comprises a V-shaped rotating shaft , one end of the V-shaped rotating shaft extends out of one sidewall of the operating mechanism , and the other end of the V-shaped rotating shaft is sleeved with a ratchet which is in linkage with the energy storage handle ; a latch which is in linkage with the ratchet is arranged on one side, facing the ratchet , of the energy storage handle ; the energy storage handle is rotated to drive the ratchet to rotate through the latch ; wherein an anti-jamming structure which prevents the latch and the ratchet from being jammed is arranged between the latch and the ratchet ; characterized in that the anti-jamming structure comprises an anti-jamming plate ; the anti-jamming plate is configured to separate the latch from the ratchet when the energy storage handle is in an initial state; wherein the anti-jamming plate is provided with a flange which is used for separating the ratchet from the latch ; when the operating mechanism releases energy, the latch is laid on the flange to prevent the latch and the ratchet from being jammed.
A method for producing a haloamine solution comprising less than 5% by weight of halogen polyoxyanions comprising (a) on-site generation of a halogen-containing oxidant solution and (b) reacting on-site the on-site generated halogen-containing oxidant with a nitrogen source, to thereby produce the haloamine solution comprising less than 5% by weight of halogen polyoxyanions, wherein the halogen is chlorine, the on-site generation comprises reacting chlorine gas with an alkaline solution and wherein the haloamine comprises monochloramine (MCA).
An attachment device for a fitting, the attachment device being configured to be openable relative to a frame body with a vertical open axis center (C1) as a center, together with a sash including an action member acting with an operation of a handle when the action member is moved from a lock position to an open position, the attachment device comprising: a device main body that is attachable to a lower rail of the sash ; an input member that is movably provided relative to the device main body and is linkable to the action member ; a watertightness ensuring member that is provided in the device main body to be movable along a vertical direction of the sash , the watertightness ensuring member being configured to hold a watertightness member ; and a linking mechanism configured to link the input member to the watertightness ensuring member to move the watertightness ensuring member relative to the device main body through movement of the input member , wherein the linking mechanism is configured to: move the watertightness ensuring member downward when the action member is arranged at the lock position; and move the watertightness ensuring member upward when the action member is arranged at the open position, characterized in that the device main body includes a lock member interlocking with the input member , and the lock member is positioned at an advanced position advanced from the device main body when the action member is arranged at the lock position, and is positioned at a retreated position retreated relative to the device main body when the action member is arranged at the open position. a device main body that is attachable to a lower rail of the sash ; an input member that is movably provided relative to the device main body and is linkable to the action member ; a watertightness ensuring member that is provided in the device main body to be movable along a vertical direction of the sash , the watertightness ensuring member being configured to hold a watertightness member ; and a linking mechanism configured to link the input member to the watertightness ensuring member to move the watertightness ensuring member relative to the device main body through movement of the input member , wherein the linking mechanism is configured to: move the watertightness ensuring member downward when the action member is arranged at the lock position; and move the watertightness ensuring member upward when the action member is arranged at the open position, move the watertightness ensuring member downward when the action member is arranged at the lock position; and move the watertightness ensuring member upward when the action member is arranged at the open position, characterized in that the device main body includes a lock member interlocking with the input member , and
An implantable cardioverter defibrillator (ICD) system comprising: a sensing circuit configured to receive a cardiac electrical signal via a sensing electrode vector and sense cardiac events from the cardiac electrical signal; a therapy delivery circuit configured to deliver electrical pacing pulses to a heart of a patient via a pacing electrode vector; and a control circuit coupled to the sensing circuit and the therapy delivery circuit and configured to automatically switch between a sensing without pacing mode and a temporary pacing mode , and further configured to: detect asystole based on the cardiac electrical signal while operating in the sensing without pacing mode, and automatically switch to the temporary pacing mode in response to detecting the asystole. a sensing circuit configured to receive a cardiac electrical signal via a sensing electrode vector and sense cardiac events from the cardiac electrical signal; a therapy delivery circuit configured to deliver electrical pacing pulses to a heart of a patient via a pacing electrode vector; and a control circuit coupled to the sensing circuit and the therapy delivery circuit and configured to automatically switch between a sensing without pacing mode and a temporary pacing mode , and further configured to: detect asystole based on the cardiac electrical signal while operating in the sensing without pacing mode, and automatically switch to the temporary pacing mode in response to detecting the asystole. detect asystole based on the cardiac electrical signal while operating in the sensing without pacing mode, and automatically switch to the temporary pacing mode in response to detecting the asystole.
A brake assembly comprising two or more disk components removably mounted about an axis , the assembly comprising fastening means for securing said two or more components together for rotation together about the axis, characterized in that said fastening means are configured to enable the components to be separated from each other by rotating one component relative to the other and then axially moving one component away from the other.
A fluid catalytic reactor for operation as a scaled-up fluid catalytic reactor which is scaled-up relative to a template fluid catalytic reactor , comprising: a riser comprising a cross-sectional area; a lower reactor portion comprising a cross-sectional area; a transition portion attaching the riser to the lower reactor portion , wherein the cross-sectional area of the riser is less than the cross-sectional area of the lower reactor portion such that the transition portion is tapered inward from the lower reactor portion to the riser ; and a flow director positioned at least within an interior region of the transition portion , wherein the flow director affects the velocity profile of fluids moving from the lower reactor portion to the riser , and wherein the flow director is a body that reduces a cross-sectional area in which a fluid can pass in the transition portion for serving to make a ratio of the available cross-sectional flow area to the cross-sectional area of the lower reactor portion within 30% at one or more heights of the transition portion with respect to the template fluid catalytic reactor . a riser comprising a cross-sectional area; a lower reactor portion comprising a cross-sectional area; a transition portion attaching the riser to the lower reactor portion , wherein the cross-sectional area of the riser is less than the cross-sectional area of the lower reactor portion such that the transition portion is tapered inward from the lower reactor portion to the riser ; and a flow director positioned at least within an interior region of the transition portion , wherein the flow director affects the velocity profile of fluids moving from the lower reactor portion to the riser ,