mhurhangee/patent-ind-claim-en huggingface dataset:
A pod for an electronic vapor (e-vapor) apparatus, comprising: a pre-vapor formulation compartment configured to hold a pre-vapor formulation therein; a device compartment in fluidic communication with the pre-vapor formulation compartment , the device compartment including a processor configured to cause the pod to monitor the pre-vapor formulation compartment and to identify the pre-vapor formulation; and a vapor channel extending from the device compartment and through the pre-vapor formulation compartment , wherein dimensions of the pod correspond to dimensions of a through-hole of the e-vapor apparatus, a side surface of the pod is configured to be held within a side wall of the through-hole of the e-vapor apparatus and the pod is configured to be exposed at opposing openings of the through-hole of the e-vapor apparatus when the pod is inserted into the through-hole of the e-vapor apparatus as a single piece. a pre-vapor formulation compartment configured to hold a pre-vapor formulation therein; a device compartment in fluidic communication with the pre-vapor formulation compartment , the device compartment including a processor configured to cause the pod to monitor the pre-vapor formulation compartment and to identify the pre-vapor formulation; and a vapor channel extending from the device compartment and through the pre-vapor formulation compartment , wherein dimensions of the pod correspond to dimensions of a through-hole of the e-vapor apparatus, a side surface of the pod is configured to be held within a side wall of the through-hole of the e-vapor apparatus and the pod is configured to be exposed at opposing openings of the through-hole of the e-vapor apparatus when the pod is inserted into the through-hole of the e-vapor apparatus as a single piece.
Apparatus comprising: a first surface electrode and a second insulated surface electrode ; an exterior surface comprising the first surface electrode and an exterior dielectric layer of the second insulated surface electrode ; and a controller configured to apply a time varying potential difference between the first surface electrode and the second insulated surface electrode to control indirectly a touch stimulus, via friction, the touch stimulus being created directly at a user's body part in use by dragging of the body part over the exterior surface, to produce at the body part of the user: a) when there is relative motion between the body part and the apparatus while there is touch contact between the body part and the apparatus, while the time varying potential difference is applied, touch stimulus that is perceptible to the user; and b) when there is not relative motion between the body part and the apparatus while there is touch contact between the body part and the apparatus, while the time varying potential difference is applied, no perceptible touch stimulus; and configured to control at least the time variation in the potential difference. a first surface electrode and a second insulated surface electrode ; an exterior surface comprising the first surface electrode and an exterior dielectric layer of the second insulated surface electrode ; and a controller configured to apply a time varying potential difference between the first surface electrode and the second insulated surface electrode to control indirectly a touch stimulus, via friction, the touch stimulus being created directly at a user's body part in use by dragging of the body part over the exterior surface, to produce at the body part of the user: a) when there is relative motion between the body part and the apparatus while there is touch contact between the body part and the apparatus, while the time varying potential difference is applied, touch stimulus that is perceptible to the user; and b) when there is not relative motion between the body part and the apparatus while there is touch contact between the body part and the apparatus, while the time varying potential difference is applied, no perceptible touch stimulus; and configured to control at least the time variation in the potential difference. a) when there is relative motion between the body part and the apparatus while there is touch contact between the body part and the apparatus, while the time varying potential difference is applied, touch stimulus that is perceptible to the user; and b) when there is not relative motion between the body part and the apparatus while there is touch contact between the body part and the apparatus, while the time varying potential difference is applied, no perceptible touch stimulus; and
A set comprising or consisting of: - an effluent bag for collecting an effluent generated during a blood treatment, with exactly one closable effluent opening to an exterior of the effluent bag , wherein the effluent opening comprises or is connected to a first connector of a first type; - an adapter having a line section for conducting a fluid, wherein the line section comprises a second connector of the first type and a third connector of a second type different from the first type, the third connector being configured to be connected to a connector of the second type of an effluent inlet line of a blood treatment apparatus . - an effluent bag for collecting an effluent generated during a blood treatment, with exactly one closable effluent opening to an exterior of the effluent bag , wherein the effluent opening comprises or is connected to a first connector of a first type; - an adapter having a line section for conducting a fluid, wherein the line section comprises a second connector of the first type and a third connector of a second type different from the first type, the third connector being configured to be connected to a connector of the second type of an effluent inlet line of a blood treatment apparatus .
An injection moldable silicone composition, comprising: A) a silicone resin having an average formula (I) (I) [R 1 3 SiO 1/2 ] a [R 2 R 3 SiO 2/2 ] b [SiO 4/2 ] c , wherein each R 1 , R 2 , and R 3 is independently hydrocarbyl having from 1 to 10 carbon atoms, hydrocarbyloxy having from 1 to 10 carbon atoms, or hydroxyl, and at least one of R 2 or R 3 is alkenyl, and subscripts a, b, and c are each > 0 and a+b+c=1, B) 0 to 90% (w/w), based on the weight of A) and B), of a silicone resin having the average formula (II) (II) [R 4 3 SiO 1/2 ] d [SiO 4/2 ] e , wherein each R 4 is independently hydrocarbyl having from 1 to 10 carbon atoms, hydrocarbyloxy having from 1 to 10 carbon atoms, or hydroxyl, and at least one of R 4 is alkenyl, and subscripts d and e are each > 0, and d+e=1, C) a siloxane polymer having an average formula (III) (III) [R 5 3 SiO 1/2 ] f [R 6 R 7 SiO 2/2 ] g , wherein each R 5-7 are independently hydrocarbyl having from 1 to 10 carbon atoms or hydroxyl, and at least one of R 5-7 is alkenyl, and subscripts f and g are each > 0, and f+g=1 D) a silicone crosslinker having at least two silicon-bonded hydrogen atoms per molecule, and E) a hydrosilylation catalyst, wherein the ratio of silicon-bonded hydrogen atoms to carbon-carbon double bonds is from 1.2 to 2.2. A) a silicone resin having an average formula (I) (I) [R 1 3 SiO 1/2 ] a [R 2 R 3 SiO 2/2 ] b [SiO 4/2 ] c , wherein each R 1 , R 2 , and R 3 is independently hydrocarbyl having from 1 to 10 carbon atoms, hydrocarbyloxy having from 1 to 10 carbon atoms, or hydroxyl, and at least one of R 2 or R 3 is alkenyl, and subscripts a, b, and c are each > 0 and a+b+c=1, B) 0 to 90% (w/w), based on the weight of A) and B), of a silicone resin having the average formula (II) (II) [R 4 3 SiO 1/2 ] d [SiO 4/2 ] e , wherein each R 4 is independently hydrocarbyl having from 1 to 10 carbon atoms, hydrocarbyloxy having from 1 to 10 carbon atoms, or hydroxyl, and at least one of R 4 is alkenyl, and subscripts d and e are each > 0, and d+e=1, C) a siloxane polymer having an average formula (III) (III) [R 5 3 SiO 1/2 ] f [R 6 R 7 SiO 2/2 ] g , wherein each R 5-7 are independently hydrocarbyl having from 1 to 10 carbon atoms or hydroxyl, and at least one of R 5-7 is alkenyl, and subscripts f and g are each > 0, and f+g=1 D) a silicone crosslinker having at least two silicon-bonded hydrogen atoms per molecule, and E) a hydrosilylation catalyst,
Vertical heat recovery steam generator, the low-pressure stages of which are designed as a once-through system, comprising - a condensate preheater with at least one condensate preheater heating surface , through which a flow medium (S) flows and which is disposed in a hot gas channel , through which hot gas (H) flows, - a low-pressure preheater with at least one low-pressure preheater heating surface , through which the flow medium (S) flows and which is disposed in the hot gas channel , - a low-pressure evaporator with at least one low-pressure evaporator heating surface , through which the flow medium (S) flows and which is disposed in the hot gas channel , - wherein the flow medium (S) flows successively through the at least one low-pressure preheater heating surface and the at least one low-pressure evaporator heating surface in one pass and without additional pressure compensation and wherein a first of the at least one low-pressure preheater heating surfaces in the hot gas channel is disposed in the region of the hot gas channel outlet and is disposed after a first of the at least one condensate preheater heating surfaces in the hot gas direction or substantially in the same region as the first of the at least one condensate preheater heating surfaces in the hot gas direction. - a condensate preheater with at least one condensate preheater heating surface , through which a flow medium (S) flows and which is disposed in a hot gas channel , through which hot gas (H) flows, - a low-pressure preheater with at least one low-pressure preheater heating surface , through which the flow medium (S) flows and which is disposed in the hot gas channel , - a low-pressure evaporator with at least one low-pressure evaporator heating surface , through which the flow medium (S) flows and which is disposed in the hot gas channel , - wherein the flow medium (S) flows successively through the at least one low-pressure preheater heating surface and the at least one low-pressure evaporator heating surface in one pass and without additional pressure compensation and wherein a first of the at least one low-pressure preheater heating surfaces in the hot gas channel is disposed in the region of the hot gas channel outlet and is disposed after a first of the at least one condensate preheater heating surfaces in the hot gas direction or substantially in the same region as the first of the at least one condensate preheater heating surfaces in the hot gas direction.
A method for an adaptive transmission time interval, TTI, coexistence mechanism, the method comprising: allocating, by a network controller , a long term evolution, LTE, TTI at a first bandwidth, wherein the first bandwidth is smaller than an available system bandwidth and is centered around a carrier frequency at a center of the available system bandwidth; allocating adaptive TTIs in the available system bandwidth outside the first bandwidth; generating adaptive TTI bandwidth partitioning information describing the allocation of adaptive TTIs in the available system bandwidth outside the first bandwidth; and broadcasting the adaptive TTI bandwidth partitioning information to adaptive TTI-capable terminals; wherein the method further comprises: communicating, by the network controller, first control information using the LTE TTI at the first bandwidth; communicating, by the network controller, second control information using the adaptive TTIs at the second bandwidth partition. allocating, by a network controller , a long term evolution, LTE, TTI at a first bandwidth, wherein the first bandwidth is smaller than an available system bandwidth and is centered around a carrier frequency at a center of the available system bandwidth; allocating adaptive TTIs in the available system bandwidth outside the first bandwidth; generating adaptive TTI bandwidth partitioning information describing the allocation of adaptive TTIs in the available system bandwidth outside the first bandwidth; and broadcasting the adaptive TTI bandwidth partitioning information to adaptive TTI-capable terminals; wherein the method further comprises: communicating, by the network controller, first control information using the LTE TTI at the first bandwidth; communicating, by the network controller, second control information using the adaptive TTIs at the second bandwidth partition. communicating, by the network controller, first control information using the LTE TTI at the first bandwidth; communicating, by the network controller, second control information using the adaptive TTIs at the second bandwidth partition.
A projection data acquisition apparatus for acquiring projection data, the projection data acquisition apparatus comprising: - a radiation device for generating a pulsed radiation beam for traversing an object, - a detection device for generating projection data being indicative of the pulsed radiation beam after having traversed the object, - a moving unit for moving the radiation device and the object relative to each other, in order to generate the projection data at different acquisition positions of the radiation device relative to the object, characterised in that the radiation device is adapted to generate the pulsed radiation beam such that at different acquisition positions the pulsed radiation beam has different shapes, and wherein the radiation device comprises a radiation source for generating a radiation beam and a collimator for partially blocking and/or attenuating the radiation beam, in order to generate the pulsed radiation beam such that at different acquisition positions the pulsed radiation beam has different shapes, wherein the collimator comprises a rotatable cylinder with several openings (44...47), wherein the collimator is adapted to rotate the cylinder such that the openings (44...47) are arranged at different rotational positions relative to the radiation source at the different acquisition positions, in order to generate the pulsed radiation beam such that at the different acquisition positions the pulsed radiation beam has different shapes, wherein the openings (44...47) of the cylinder include first openings arranged at a first position along a longitudinal axis of the cylinder and second openings arranged at a second position along the longitudinal axis of the cylinder , wherein the first openings and the second openings have a circumferential offset relative to each other. - a radiation device for generating a pulsed radiation beam for traversing an object, - a detection device for generating projection data being indicative of the pulsed radiation beam after having traversed the object, - a moving unit for moving the radiation device and the object relative to each other, in order to generate the projection data at different acquisition positions of the radiation device relative to the object,
Headlight for a vehicle (M) comprising: - a parabolic reflector comprising an opening , said parabolic reflector being configured to reflect and distribute in a homogenous manner toward the opening at least a light beam ; - a transparent shield to close said opening ; - a support partition arranged in the parabolic reflector , so to define a first sector of the reflector and a second sector of the reflector opposed each other with respect to said support partition ; - at least a light source configured to generate: - a first light beam pointed toward said first sector of the reflector ; - a second light beam pointed toward said second sector of the reflector ; - a third light beam ; - a mask comprising at least a window partially transparent and an opaque portion which surrounds said window ; said mask being arranged in front of said support partition and the third light beam being pointed toward said opening so to backlight said window , wherein said window comprises an edge shaped so to outline a symbol or a logo; characterized in that said third light beam acts as position light or day running light; and in that said at least a light source comprises: a first plurality of LEDs configured to generate said first light beam , a second plurality of LEDs configured to generate said second light beam , a third plurality of LEDs configured to generate said third light beam . - a parabolic reflector comprising an opening , said parabolic reflector being configured to reflect and distribute in a homogenous manner toward the opening at least a light beam ; - a transparent shield to close said opening ; - a support partition arranged in the parabolic reflector , so to define a first sector of the reflector and a second sector of the reflector opposed each other with respect to said support partition ; - at least a light source configured to generate: - a first light beam pointed toward said first sector of the reflector ; - a second light beam pointed toward said second sector of the reflector ; - a third light beam ; - a first light beam pointed toward said first sector of the reflector ; - a second light beam pointed toward said second sector of the reflector ; - a third light beam ; - a mask comprising at least a window partially transparent and an opaque portion which surrounds said window ; said mask being arranged in front of said support partition and the third light beam being pointed toward said opening so to backlight said window , wherein said window comprises an edge shaped so to outline a symbol or a logo;
A chlorhexidine or a related compound, complex or salt thereof according to formula (I); wherein A and A1 each independently represent either a phenyl radical which optionally is substituted by an alkyl or alkoxy group containing from 1 to 4 carbon atoms, a nitro group, or a halogen atom; an alkyl group containing from 1 to 12 carbon atoms; or alicyclic groups containing from 4 to 12 carbon atoms; X and X 1 each independently represent an alkylene radical containing from 1 to 3 carbon atoms; z and z 1 each independently may be either 0 or 1; R and R 1 each independently represent hydrogen, an alkyl radical containing from 1 to 12 carbon atoms, or an aralkyl radical containing from 7 to 12 carbon atoms; and n is an integer from 2 to 12, the chlorhexidine or a related compound, complex or salt thereof comprising one or more NO molecules bound via one or more imine moieties forming a NONOate and/or N-nitroso compound, wherein the NO bound chlorhexidine or a related compound, complex or salt thereof is obtainable by activating the chlorhexidine or a related compound, complex or salt thereof by heating and/or exposing the chlorhexidine or a related compound, complex or salt thereof to a reduced pressure; and exposing the activated precursor to NO.
A method implemented in a crude oil refining facility, the method comprising: in a crude oil refining facility comprising a plurality of oil refining plants, each oil refining plant configured to perform at least one oil refining process, each oil refining plant comprising a plurality of interconnected oil refining sub-systems, wherein a plurality of streams at respective temperatures flow between the plurality of oil refining sub-systems: flowing an aromatics plant stream in an aromatics plant of the plurality of oil refining plants to a first heat exchanger; flowing a stream from a first oil refining plant of the plurality of oil refining plants, the first oil refining plant being different from the aromatics plant, to the first heat exchanger, wherein the first heat exchanger transfers heat from the aromatics plant stream to the stream from the first oil refining plant; and utilizing the stream from the first oil refining plant heated by the aromatics plant stream in an oil refining process at the first oil refining plant. flowing an aromatics plant stream in an aromatics plant of the plurality of oil refining plants to a first heat exchanger; flowing a stream from a first oil refining plant of the plurality of oil refining plants, the first oil refining plant being different from the aromatics plant, to the first heat exchanger, wherein the first heat exchanger transfers heat from the aromatics plant stream to the stream from the first oil refining plant; and utilizing the stream from the first oil refining plant heated by the aromatics plant stream in an oil refining process at the first oil refining plant.
A system comprising: a screw-type compressor having a compression path between a suction port located to receive a working fluid and a discharge port located to discharge the working fluid; a condenser receiving and condensing working fluid compressed by the compressor ; an evaporator receiving and evaporating working fluid condensed by the condenser and returning the evaporated working fluid to the compressor ; and a throttle valve arranged between the condenser and the evaporator ; characterised by further comprising: means adapted to control a supplemental flow of working fluid to the compressor responsive to changes in at least one pressure parameter; said parameter comprising a difference between the pressure of working fluid at an outlet from the condenser and the pressure at the location of introduction of the supplemental flow of working fluid to the compressor , wherein the location of introduction is in the last third of the compression process; and said means comprises a pressure-actuated mechanical check valve arranged between the outlet of the condenser and the location . a screw-type compressor having a compression path between a suction port located to receive a working fluid and a discharge port located to discharge the working fluid; a condenser receiving and condensing working fluid compressed by the compressor ; an evaporator receiving and evaporating working fluid condensed by the condenser and returning the evaporated working fluid to the compressor ; and a throttle valve arranged between the condenser and the evaporator ; characterised by further comprising: means adapted to control a supplemental flow of working fluid to the compressor responsive to changes in at least one pressure parameter; said parameter comprising a difference between the pressure of working fluid at an outlet from the condenser and the pressure at the location of introduction of the supplemental flow of working fluid to the compressor , wherein the location of introduction is in the last third of the compression process; and said means comprises a pressure-actuated mechanical check valve arranged between the outlet of the condenser and the location . means adapted to control a supplemental flow of working fluid to the compressor responsive to changes in at least one pressure parameter; said parameter comprising a difference between the pressure of working fluid at an outlet from the condenser and the pressure at the location of introduction of the supplemental flow of working fluid to the compressor , wherein the location of introduction is in the last third of the compression process; and said means comprises a pressure-actuated mechanical check valve arranged between the outlet of the condenser and the location .