mhurhangee/patent-ind-claim-en huggingface dataset:
Apparatus for heating smokable material to volatilise at least one component of the smokable material , the apparatus comprising: a casing comprising a recess for receiving a cartridge , the casing defining an opening into the recess ; and a mouthpiece comprising an inlet , an outlet , a channel fluidly connecting the inlet with the outlet , and a seal surrounding the inlet ; wherein the mouthpiece is locatable relative to the casing so as to cover the opening , with the seal facing the recess for contacting a cartridge when the cartridge is received in the recess to seal the inlet of the mouthpiece to the cartridge in use. a casing comprising a recess for receiving a cartridge , the casing defining an opening into the recess ; and a mouthpiece comprising an inlet , an outlet , a channel fluidly connecting the inlet with the outlet , and a seal surrounding the inlet ; wherein the mouthpiece is locatable relative to the casing so as to cover the opening , with the seal facing the recess for contacting a cartridge when the cartridge is received in the recess to seal the inlet of the mouthpiece to the cartridge in use.
A method of forming an overhanging structure at a discharge end of a cooling hole that passes through a component, the method comprising: forming a recess in a surface of the component, the recess being formed at an end of a bore through the component, the recess including a face at an internal surface of the recess ; blocking the bore with a plug such that the face remains exposed, the plug positioned where the bore engages the recess ; depositing powder (P) into the recess on the plug and fusing the powder (P) in a pattern corresponding to a layer of the structure; and using an additive manufacturing process to fuse the powder (P) to the face to build up an edge of the discharge end of the cooling hole to form an overhanging tab . forming a recess in a surface of the component, the recess being formed at an end of a bore through the component, the recess including a face at an internal surface of the recess ; blocking the bore with a plug such that the face remains exposed, the plug positioned where the bore engages the recess ; depositing powder (P) into the recess on the plug and fusing the powder (P) in a pattern corresponding to a layer of the structure; and using an additive manufacturing process to fuse the powder (P) to the face to build up an edge of the discharge end of the cooling hole to form an overhanging tab .
An injection molding machine comprising: an injection unit which includes a reservoir cylinder and an injection cylinder and to which a molten resin is supplied; a supply unit that supplies the molten resin to the reservoir cylinder and the injection cylinder ; a discharge unit that discharges the molten resin supplied to the injection unit ; a nozzle that injects the molten resin supplied to the injection cylinder into a mold unit; a control unit that controls the injection unit ; a switching unit that switches flow directions of the molten resin among a supply/discharge switching unit , the injection cylinder , and the nozzle ; and the supply/discharge switching unit that switches flow directions of the molten resin among the supply unit , the reservoir cylinder , the switching unit , and the discharge unit , wherein the control unit includes a determination unit that determines whether or not the molten resin is capable of being received in the injection cylinder , and a processing unit that controls the supply/discharge switching unit such that the flow direction of the molten resin is switched, based on a determination result of the determination unit . an injection unit which includes a reservoir cylinder and an injection cylinder and to which a molten resin is supplied; a supply unit that supplies the molten resin to the reservoir cylinder and the injection cylinder ; a discharge unit that discharges the molten resin supplied to the injection unit ; a nozzle that injects the molten resin supplied to the injection cylinder into a mold unit; a control unit that controls the injection unit ; a switching unit that switches flow directions of the molten resin among a supply/discharge switching unit , the injection cylinder , and the nozzle ; and the supply/discharge switching unit that switches flow directions of the molten resin among the supply unit , the reservoir cylinder , the switching unit , and the discharge unit , wherein the control unit includes a determination unit that determines whether or not the molten resin is capable of being received in the injection cylinder , and a processing unit that controls the supply/discharge switching unit such that the flow direction of the molten resin is switched, based on a determination result of the determination unit . a determination unit that determines whether or not the molten resin is capable of being received in the injection cylinder , and a processing unit that controls the supply/discharge switching unit such that the flow direction of the molten resin is switched, based on a determination result of the determination unit .
An adjustment device for adjusting an optical element relative to a light transmission unit or a light reception unit of an optoelectronic sensor (S), wherein the optical element is supported in a cylindrical optics carrier and the light transmission unit and/or the light reception unit is/are arranged on an expansion card of the sensor (S), and wherein the adjustment device is configured such that the optics carrier is arranged at a fixed location in a defined position relative to the light transmission unit and/or the light reception unit ; and wherein compressed air (DI) can be introduced into the optics carrier to fixe the optical element provided in the optics carrier in the direction of a first and a second degree of freedom (x and y) within the optics carrier transversely to a longitudinal axis (L) and to contactlessly move the optical element in the direction of the longitudinal axis (L) into a defined operating position; wherein the optical element is movable along the longitudinal axis (L) of the optics carrier toward the light transmission unit and/or light reception unit or away from the light transmission unit and/or light reception unit so that the optical element can be aligned in the defined operating position with respect to the light transmission unit and/or light reception unit and can be fastened in the operating position in which the optical element is adjusted with respect to the light transmission unit and/or light reception unit ; and wherein at least two grooves that extend in parallel with the longitudinal axis (L) of the optics carrier and are configured to conduct the compressed air (DI) are provided at an inner wall of the optics carrier . wherein the adjustment device is configured such that the optics carrier is arranged at a fixed location in a defined position relative to the light transmission unit and/or the light reception unit ; and wherein compressed air (DI) can be introduced into the optics carrier to fixe the optical element provided in the optics carrier in the direction of a first and a second degree of freedom (x and y) within the optics carrier transversely to a longitudinal axis (L) and to contactlessly move the optical element in the direction of the longitudinal axis (L) into a defined operating position; wherein the optical element is movable along the longitudinal axis (L) of the optics carrier toward the light transmission unit and/or light reception unit or away from the light transmission unit and/or light reception unit so that the optical element can be aligned in the defined operating position with respect to the light transmission unit and/or light reception unit and can be fastened in the operating position in which the optical element is adjusted with respect to the light transmission unit and/or light reception unit ; and wherein at least two grooves that extend in parallel with the longitudinal axis (L) of the optics carrier and are configured to conduct the compressed air (DI) are provided at an inner wall of the optics carrier .
Boarding bridge with a bridge head , with a passenger tunnel , with a cabin slewing drive unit, and with a cabin , which can be slewed about a section of the bridge head by means of the cabin slewing drive unit, said cabin slewing drive unit being configured as a chain drive and comprising a motor drive , wherein at least one chain is held on the bridge head side, and the motor drive , with a drive pinion meshing with one of the chains is arranged on the cabin side, wherein a braking device is assigned to the cabin slewing drive, blocking the slewing capacity of the cabin in relation to the bridge head , this braking device being capable of being opened against a resetting force by a brake opening actuator connected to a control unit and receiving switching commands from this unit, and, with the brake opening actuator deactivated, closes automatically due to the resetting force stored by the opening procedure, characterised in that the braking device comprises a brake calliper held on the cabin side, operating in the manner of a disk brake, as a brake opening actuator , with two brake blocks (15 15.1) carrying brake pads, and a disk-shaped ring segment body , arranged on the bridge head side and engaging between the brake pads, against which the brake blocks (15, 15.1) with their brake pads take effect, with the braking calliper deactivated, in order to block a slewing movement of the cabin in relation to the bridge head , and of which the brake blocks (15, 15.1) with their brake pads are released when the brake calliper is activated.
The use of a graft macromer comprising the reaction product of at least one macromer being at least one molecule which comprises in its structure one or more hydroxyl-terminated polyether and/or polyester chains, with at least one grafting compound which comprises in its structure at least one at least monoalkoxylated or at least monohalogenated silyl group and at least one alkyl, cycloalkyl or aryl containing group which is reactive towards the hydroxyl group of the macromer, as a stabilizer for oxidic silicon particles selected from the group consisting of silicon dioxide, silicates, silicic acid and mixtures thereof, in polyols, wherein the oxidic silicon particles have an arithmetic mean diameter (d) in the range of from 0.5 to 20 μm.
A method for dispensing an absorbent in an absorption refrigerator or an absorption heat pump, in which - a working fluid flows through a heat exchanger; and - an additive-free sorbent is dispensed by means of a distribution device onto a heat exchange surface of the heat exchanger in a refrigerant environment such that the sorbent, which forms a working pair with the refrigerant, - at least partially absorbs the refrigerant from the refrigerant environment and emits heat released in this process to the heat exchanger, or - at least partially desorbs the refrigerant from the sorbent into an environment of the sorbent and in this process absorbs heat from the heat exchanger; wherein the distribution device has a jet device with which the sorbent is emitted in the form of one or more jets onto the heat exchange surface , turbulent flows of the sorbent forming thereby on the heat exchange surface , wherein the jet device emits the jets as continuous jets of the sorbent, wherein inducing the turbulent flows of the sorbent on the heat exchange surface is carried out by means of an increased immission speed of the sorbent such that turbulent flows are induced on the heat exchange surface without adding an additive. - a working fluid flows through a heat exchanger; and - an additive-free sorbent is dispensed by means of a distribution device onto a heat exchange surface of the heat exchanger in a refrigerant environment such that the sorbent, which forms a working pair with the refrigerant, - at least partially absorbs the refrigerant from the refrigerant environment and emits heat released in this process to the heat exchanger, or - at least partially desorbs the refrigerant from the sorbent into an environment of the sorbent and in this process absorbs heat from the heat exchanger; - at least partially absorbs the refrigerant from the refrigerant environment and emits heat released in this process to the heat exchanger, or - at least partially desorbs the refrigerant from the sorbent into an environment of the sorbent and in this process absorbs heat from the heat exchanger;
A compound of the formula (I), wherein R 1 is phenyl, which is unsubstituted or substituted one or two or three times by halogen or C 1-6 alkyl; R 2 is C 1-6 alkyl; X is -(Cy) 0-1 -(L 1 ) 0-1 -(L 2 ) 0-1 -; wherein Cy is 3-20 membered heterocyclyl; L 1 is C 1-6 alkyl or carboxyC 1-6 alkyl; L 2 is O, S, -N(R 3 )- or -C(O)-NH-; wherein R 3 is H or C 1-6 alkyl; Y is a bond, C 1-9 alkyl, C 1-6 alkoxyC 1-6 alkoxyC 1-6 alkyl or carboxyC 1-9 alkyl; A is formula (A1) wherein R 4 is hydrogen or C 1-6 alkyl; R 5 is hydrogen or C 1-6 alkoxy; or formula (A2) wherein R 6 is hydrogen or halogen; R 7 is hydrogen or halogen; R 8 is hydrogen or C 1-6 alkyl; U is a bond or O; W is CH or N. or a pharmaceutically acceptable salt thereof. R 1 is phenyl, which is unsubstituted or substituted one or two or three times by halogen or C 1-6 alkyl; R 2 is C 1-6 alkyl; X is -(Cy) 0-1 -(L 1 ) 0-1 -(L 2 ) 0-1 -; wherein Cy is 3-20 membered heterocyclyl; L 1 is C 1-6 alkyl or carboxyC 1-6 alkyl; L 2 is O, S, -N(R 3 )- or -C(O)-NH-; wherein R 3 is H or C 1-6 alkyl; Cy is 3-20 membered heterocyclyl; L 1 is C 1-6 alkyl or carboxyC 1-6 alkyl; L 2 is O, S, -N(R 3 )- or -C(O)-NH-; wherein R 3 is H or C 1-6 alkyl; Y is a bond, C 1-9 alkyl, C 1-6 alkoxyC 1-6 alkoxyC 1-6 alkyl or carboxyC 1-9 alkyl; A is formula (A1) wherein R 4 is hydrogen or C 1-6 alkyl; R 5 is hydrogen or C 1-6 alkoxy; or formula (A2) wherein R 6 is hydrogen or halogen; R 7 is hydrogen or halogen; R 8 is hydrogen or C 1-6 alkyl; U is a bond or O; W is CH or N. or a pharmaceutically acceptable salt thereof. R 4 is hydrogen or C 1-6 alkyl; R 5 is hydrogen or C 1-6 alkoxy; or formula (A2) R 6 is hydrogen or halogen; R 7 is hydrogen or halogen; R 8 is hydrogen or C 1-6 alkyl; U is a bond or O; W is CH or N.
A control information management device for managing control information received from each of a plurality of control terminals and to be relayed to an electronic device which is remotely controllable from the plurality of control terminals, the control information management device comprising: a memory unit operable to store the control information for each of the control terminals; a notification necessity determination unit operable to determine, when additional control information is received from one of the control terminals , on a basis of the control information stored in the memory unit, whether content of the additional control information should be notified to other control terminals, for each of the other control terminals; and a notification unit operable to notify the content of the additional control information to a control terminal for which notification has been determined to be necessary by the notification necessity determination unit, wherein the control information includes a control date-time, and when the additional control information is received from one of the control terminals, the notification necessity determination unit is configured to determine, for each of the other control terminals, whether a difference between a latest control date-time stored in the memory unit and a control date-time included in the additional control information falls within a predetermined time period, and the notification necessity determination unit is configured to determine that the content of the additional control information should be notified to a control terminal having the difference determined to fall within the predetermined time period. a memory unit operable to store the control information for each of the control terminals; a notification necessity determination unit operable to determine, when additional control information is received from one of the control terminals , on a basis of the control information stored in the memory unit, whether content of the additional control information should be notified to other control terminals, for each of the other control terminals; and a notification unit operable to notify the content of the additional control information to a control terminal for which notification has been determined to be necessary by the notification necessity determination unit, wherein the control information includes a control date-time, and when the additional control information is received from one of the control terminals, the notification necessity determination unit is configured to determine, for each of the other control terminals, whether a difference between a latest control date-time stored in the memory unit and a control date-time included in the additional control information falls within a predetermined time period, and the notification necessity determination unit is configured to determine that the content of the additional control information should be notified to a control terminal having the difference determined to fall within the predetermined time period.
A customized system for oral irrigation comprising: a fluid reservoir ; and a customized oral insert in fluid communication with the fluid reservoir , wherein the customized oral insert comprises an arrangement of fluid openings positioned to provide a fluid flow customized to one or more teeth of a specific user and a plurality of manifolds in fluid communication with the arrangement of fluid openings , wherein the shape and size of the fluid openings and the plurality of manifolds are customized to at least one characteristic of the one or more teeth and/or gingiva of the specific user, wherein the fluid openings are aligned relative to interproximal spaces between teeth of the specific user. a fluid reservoir ; and a customized oral insert in fluid communication with the fluid reservoir , wherein the customized oral insert comprises an arrangement of fluid openings positioned to provide a fluid flow customized to one or more teeth of a specific user and a plurality of manifolds in fluid communication with the arrangement of fluid openings , wherein the shape and size of the fluid openings and the plurality of manifolds are customized to at least one characteristic of the one or more teeth and/or gingiva of the specific user, wherein the fluid openings are aligned relative to interproximal spaces between teeth of the specific user.
A method for manufacturing a dental resin block, the method comprising: injecting a material before cure that is to be a dental resin block into a mold that has an aperture configured to make the pressure inside and outside the mold same and wherein the mold is formed by synthetic resin; putting the mold with the material before cure that is to be a dental resin block into a vessel with which whole of the composition and the mold can have a predetermined pressure, and pressurizing the mold and the material before cure, which is injected into the mold, with a pressure of 1.0 MPa or more; and heating the mold and the material before cure, which is injected into the mold, with a temperature of 60°C or more, at the same time when the pressure has been raised, to be polymerized under the situation where the pressure inside and outside the mold is the same. injecting a material before cure that is to be a dental resin block into a mold that has an aperture configured to make the pressure inside and outside the mold same and wherein the mold is formed by synthetic resin; putting the mold with the material before cure that is to be a dental resin block into a vessel with which whole of the composition and the mold can have a predetermined pressure, and pressurizing the mold and the material before cure, which is injected into the mold, with a pressure of 1.0 MPa or more; and heating the mold and the material before cure, which is injected into the mold, with a temperature of 60°C or more, at the same time when the pressure has been raised, to be polymerized under the situation where the pressure inside and outside the mold is the same.
A method of evaluating formation fluid with a downhole tool disposed in a borehole , the downhole tool having a density sensor , memory , and a processing unit , the method comprising: defining a plurality of possible constituents for the formation fluid; defining constraints on fractions for the possible constituents that may exist in the formation fluid; obtaining the formation fluid from the borehole with the downhole tool over a plurality of time intervals; measuring density of the obtained formation fluid at the time intervals with the density sensor ; recording the measured density in the memory ; recursively computing , with the processing unit , a state probability distribution function estimating an amount of each of the possible constituents of the obtained formation fluid at the time intervals based on the measured density of the obtained formation fluid and based on the defined constraints; and determining , with the processing unit , constituents other than mud filtrate present in the formation fluid based on the computed state probability distribution functions. defining a plurality of possible constituents for the formation fluid; defining constraints on fractions for the possible constituents that may exist in the formation fluid; obtaining the formation fluid from the borehole with the downhole tool over a plurality of time intervals; measuring density of the obtained formation fluid at the time intervals with the density sensor ; recording the measured density in the memory ; recursively computing , with the processing unit , a state probability distribution function estimating an amount of each of the possible constituents of the obtained formation fluid at the time intervals based on the measured density of the obtained formation fluid and based on the defined constraints; and determining , with the processing unit , constituents other than mud filtrate present in the formation fluid based on the computed state probability distribution functions.