mhurhangee/patent-ind-claim-en huggingface dataset:
Finish panel, comprising a front surface and a rear surface, wherein: - the front surface is smooth and, in use, is exposed to the sight of a user; - the rear surface, in use, is hidden from the sight of a user; - the panel thickness varies between a maximum and a minimum value in order to reproduce a predefined graphic solution, wherein the areas of the panel with minimum thickness correspond to the lighter areas of the graphic solution and the areas of the panel with maximum thickness correspond to darker areas of the graphic solution; and - the thickness is between 0.05 mm and 10 mm; characterized in that the areas of the panel with minimum thickness have a transparency of less than 40%. - the front surface is smooth and, in use, is exposed to the sight of a user; - the rear surface, in use, is hidden from the sight of a user; - the panel thickness varies between a maximum and a minimum value in order to reproduce a predefined graphic solution, wherein the areas of the panel with minimum thickness correspond to the lighter areas of the graphic solution and the areas of the panel with maximum thickness correspond to darker areas of the graphic solution; and - the thickness is between 0.05 mm and 10 mm; characterized in that the areas of the panel with minimum thickness have a transparency of less than 40%.
Bicycle operating apparatus for controlling at least one component of a bicycle , comprising: - a carrier element to or on which a fastening device for fixing the bicycle operating apparatus to the handlebar of a bicycle is attachable or provided, - a housing , provided on the carrier element , having an electronic circuit arrangement accommodated in the housing , wherein a first and a second switch , which are each connected to the electronic circuit arrangement , are provided on the housing , - an operating component , which is mounted on the carrier element so as to be pivotable about an operating axis (B) and is preloaded into a neutral position, said operating component being able to be deflected out of the neutral position in a first direction of rotation (R1) about the operating axis (B) in order to actuate the first switch , and being able to be deflected out of the neutral position in a second direction of rotation (R2) opposite to the first direction of rotation (R1) in order to actuate the second switch , characterized in that the operating component comprises a first operating element and a second operating element , which are formed separately from one another in each case in one piece and are each mounted on the carrier element so as to be pivotable about the operating axis (B). - a carrier element to or on which a fastening device for fixing the bicycle operating apparatus to the handlebar of a bicycle is attachable or provided, - a housing , provided on the carrier element , having an electronic circuit arrangement accommodated in the housing , wherein a first and a second switch , which are each connected to the electronic circuit arrangement , are provided on the housing , - an operating component , which is mounted on the carrier element so as to be pivotable about an operating axis (B) and is preloaded into a neutral position, said operating component being able to be deflected out of the neutral position in a first direction of rotation (R1) about the operating axis (B) in order to actuate the first switch , and being able to be deflected out of the neutral position in a second direction of rotation (R2) opposite to the first direction of rotation (R1) in order to actuate the second switch ,
An aerosol device for user inhalation of an aerosol stream, the device comprising: - an aerosol inhaler adapted for guiding the aerosol stream comprising a plurality of microdroplets, characterised in that the device comprises: - a non-thermal plasma jet generator adapted for generating a plasma plume of non-thermal plasma, the plasma jet generator comprising an outlet for exhausting the plasma plume in the aerosol stream. - an aerosol inhaler adapted for guiding the aerosol stream comprising a plurality of microdroplets, - a non-thermal plasma jet generator adapted for generating a plasma plume of non-thermal plasma, the plasma jet generator comprising an outlet for exhausting the plasma plume in the aerosol stream.
An electrical heating appliance comprising: - a frame comprising a casing and a rear face demarcating an internal volume of the frame, wherein the rear face is suitable for being secured to a wall that is substantially vertical, - a heating element placed in the internal volume of the frame; wherein the casing comprises a radiating element with a radiating front , heated by the heating element, a phase-change material being placed in the radiating element; the appliance being characterized in that : - a phase-change temperature T φB of the phase-change material is slightly lower than a required temperature TvB of the radiating front ; and - the radiating element forms a sealed container comprising several compartments , within which the phase-change material or materials are placed, wherein the compartments are arranged so as to form at least one channel connecting a rear face of the radiating element with the radiating front. - a frame comprising a casing and a rear face demarcating an internal volume of the frame, wherein the rear face is suitable for being secured to a wall that is substantially vertical, - a heating element placed in the internal volume of the frame; - a phase-change temperature T φB of the phase-change material is slightly lower than a required temperature TvB of the radiating front ; and - the radiating element forms a sealed container comprising several compartments , within which the phase-change material or materials are placed, wherein the compartments are arranged so as to form at least one channel connecting a rear face of the radiating element with the radiating front.
An organic light-emitting device containing both a compound having one or more structures represented by the following general formula , and a compound represented by the following general formula : wherein the ring a, the ring b and the ring c each independently represent a benzene ring that may be condensed with any other ring to form an aryl ring or a heteroaryl ring, and at least one hydrogen atom in these rings may be substituted; R 1 and R 2 each independently represent a substituted or unsubstituted aryl group, or a substituted or unsubstituted heteroaryl group bonding via the benzene ring; R 1 may bond to the carbon atom neighboring to the bonding position (atom) to N in the ring a and/or the ring c via - O-, -S-, -C(-R c1 ) 2 - or a single bond; R 2 may bond to the carbon atom neighboring to the bonding position (atom) to N in the ring a and/or the ring b via -O-, -S-, -C(-R c2 ) 2 - or a single bond; R c1 and R c2 each independently represent a hydrogen atom or an alkyl group; wherein four of R 31 to R 35 each independently represent a substituted or unsubstituted carbazol-9-yl group, but all of these four are not the same, and the remaining one represents a hydrogen atom, a substituted or unsubstituted aryl group, a substituted or unsubstituted carbazol-9-yl group, or a cyano group, and the amount of the compound of general formula being larger than the amount of the compound of the general formula . wherein the ring a, the ring b and the ring c each independently represent a benzene ring that may be condensed with any other ring to form an aryl ring or a heteroaryl ring, and at least one hydrogen atom in these rings may be substituted; R 1 and R 2 each independently represent a substituted or unsubstituted aryl group, or a substituted or unsubstituted heteroaryl group bonding via the benzene ring; R 1 may bond to the carbon atom neighboring to the bonding position (atom) to N in the ring a and/or the ring c via - O-, -S-, -C(-R c1 ) 2 - or a single bond; R 2 may bond to the carbon atom neighboring to the bonding position (atom) to N in the ring a and/or the ring b via -O-, -S-, -C(-R c2 ) 2 - or a single bond; R c1 and R c2 each independently represent a hydrogen atom or an alkyl group; wherein four of R 31 to R 35 each independently represent a substituted or unsubstituted carbazol-9-yl group, but all of these four are not the same, and the remaining one represents a hydrogen atom, a substituted or unsubstituted aryl group, a substituted or unsubstituted carbazol-9-yl group, or a cyano group, and the amount of the compound of general formula being larger than the amount of the compound of the general formula .
A method for determining the adhesive strength of a hemostatic tissue sealant patch, said hemostatic tissue sealant patch comprising at least one tissue sealing surface and a hemostatic agent, wherein said method comprises: attaching a first hemostatic tissue sealant patch to a first surface such that said tissue sealing surface of said first hemostatic tissue sealant patch remains exposed; attaching a second hemostatic tissue sealant patch to a second surface such that said tissue sealing surface of said second hemostatic tissue sealant patch remains exposed; activating said hemostatic agent on at least one of said hemostatic tissue sealant patches ; pressing together said tissue sealing surfaces of said hemostatic sealant patches for a first predetermined time, thereby causing said hemostatic sealant patches to adhere one to the other; after said first predetermined time, applying a force to said hemostatic patches opposite in direction from that applied in said step of pressing together said tissue sealing surfaces; and, measuring the force required to detach fully said hemostatic sealant patches one from the other, thereby determining the adhesive strength of said hemostatic tissue patch. attaching a first hemostatic tissue sealant patch to a first surface such that said tissue sealing surface of said first hemostatic tissue sealant patch remains exposed; attaching a second hemostatic tissue sealant patch to a second surface such that said tissue sealing surface of said second hemostatic tissue sealant patch remains exposed; activating said hemostatic agent on at least one of said hemostatic tissue sealant patches ; pressing together said tissue sealing surfaces of said hemostatic sealant patches for a first predetermined time, thereby causing said hemostatic sealant patches to adhere one to the other; after said first predetermined time, applying a force to said hemostatic patches opposite in direction from that applied in said step of pressing together said tissue sealing surfaces; and, measuring the force required to detach fully said hemostatic sealant patches one from the other, thereby determining the adhesive strength of said hemostatic tissue patch.
Method for assisting a user with the operation of a touch-sensitive operating unit , comprising the steps of: - detecting a presence of an input means , in particular a finger of the user, in a predefined first region , which does not have any contact with the operating unit , in front of a button displayed on the operating unit , characterized by , in response to this: - starting of a timer with a predefined duration and, in response to expiry of the timer, - performance of a secondary function of the button associated with the button , wherein - a primary function is performed if the presence of the input means ends in a predefined first time range of the timer, and - the secondary function is performed if the presence of the input means ends in a predefined second time range, wherein the first time range is shorter than the second time range. - detecting a presence of an input means , in particular a finger of the user, in a predefined first region , which does not have any contact with the operating unit , in front of a button displayed on the operating unit , - starting of a timer with a predefined duration and, in response to expiry of the timer, - performance of a secondary function of the button associated with the button , wherein - performance of a secondary function of the button associated with the button , wherein - a primary function is performed if the presence of the input means ends in a predefined first time range of the timer, and - the secondary function is performed if the presence of the input means ends in a predefined second time range, wherein the first time range is shorter than the second time range.
A nacelle apparatus for use with an aircraft engine comprising: a forward section defining an air intake of the aircraft engine , the forward section to move relative to an intermediate section, the intermediate section to house a fan of the aircraft engine ; an inlet lip coupled to the forward section, the forward section to translate relative to the intermediate section between a first open position and a closed position to change an axial length between the inlet lip and the fan; wherein the forward section defines a primary flow path when the forward section is in the closed position ; wherein the forward section and the intermediate section define the primary flow path and an auxiliary flow path when the forward section is in the first open position ; and wherein said nacelle further comprises a plurality of vanes positioned in the auxiliary flow path when the forward section is in the first open position , wherein the vanes move between a plurality of angles to vary airflow in a direction toward the fan when the forward section is in the first open position . a forward section defining an air intake of the aircraft engine , the forward section to move relative to an intermediate section, the intermediate section to house a fan of the aircraft engine ; an inlet lip coupled to the forward section, the forward section to translate relative to the intermediate section between a first open position and a closed position to change an axial length between the inlet lip and the fan; wherein the forward section defines a primary flow path when the forward section is in the closed position ; wherein the forward section and the intermediate section define the primary flow path and an auxiliary flow path when the forward section is in the first open position ; and wherein said nacelle further comprises a plurality of vanes positioned in the auxiliary flow path when the forward section is in the first open position , wherein the vanes move between a plurality of angles to vary airflow in a direction toward the fan when the forward section is in the first open position .
A hay making machine , having a main frame which has a longitudinal support bar , having a chassis which has running wheels , wherein the main frame is supported on the chassis via the longitudinal support bar and is supported on ground to be worked via the running wheels of the chassis , having rotary rakes , wherein each rotary rake is pivotably or hingedly articulated on the main frame by means of a boom arm in order to displace the respective rotary rake between a working position and a transport position, and wherein, when in the working position, each rotary rake is supported on the ground to be worked via feeler and support wheels , having a power operated mechanism via which the main frame with the articulated rotary rakes can be raised and lowered relative to the chassis between a transport position and a working position, characterized in that struts of the chassis onto which the running wheels of the chassis engage can be displaced relative to the longitudinal support bar of the main frame by means of the power operated mechanism , along with a change to a separation of the running wheels extending transversely to the longitudinal direction of the longitudinal support bar .
Device for gripping pericardium comprising - at least one inner tube and at least one outer tube , - wherein the outer tube has at least one outer diameter and an inner outer tube diameter , and - said inner tube having at least one inner diameter and an outer inner tube diameter , wherein - the outer diameter is larger than the inner diameter and the inner outer tube diameter being larger than the outer inner tube diameter, and - the inner tube has at least one inner tube end surface on at least one inner tube end, - and wherein the outer tube has at least one outer tube end surface on at least one outer tube end , and wherein the outer tube end surface has at least a second surface structure , characterized in that the inner tube is movably arranged in the outer tube and wherein the inner tube end surface has at least a first surface structure and the first surface structure and the second surface structure are formed differently, wherein the inner tube is rotatably arranged in the outer tube. - at least one inner tube and at least one outer tube , - wherein the outer tube has at least one outer diameter and an inner outer tube diameter , and - said inner tube having at least one inner diameter and an outer inner tube diameter , wherein - the outer diameter is larger than the inner diameter and the inner outer tube diameter being larger than the outer inner tube diameter, and - the inner tube has at least one inner tube end surface on at least one inner tube end, - and wherein the outer tube has at least one outer tube end surface on at least one outer tube end ,
A pump and valve arrangement comprising: a dialyser having a semi-permeable membrane; an inlet pump assembly operable to deliver a first volume of dialysis fluid from a dialysis fluid source to the dialyser in an inlet pump cycle having a dialysis fluid delivery stroke; an outlet pump assembly operable to remove a second volume of dialysis fluid from the dialyser and deliver the second volume of dialysis fluid away from the dialyser in an outlet pump cycle having a dialysis fluid removal stroke; a control system operable to operate the inlet pump assembly in the inlet pump cycle, and operable to operate the outlet pump assembly in the outlet pump cycle, wherein for each inlet pump cycle there is a corresponding outlet pump cycle, characterized in that either the control system is further operable to operate the inlet pump assembly in an inlet pump shuttling step additional to the inlet and outlet pump cycles to shuttle the first volume of dialysis fluid between the inlet pump assembly and the dialyser one or more times so as to agitate a surface of the semi-permeable membrane of the dialyser , or the control system is further operable to operate the outlet pump assembly in an outlet pump shuttling step additional to the inlet and outlet pump cycles to shuttle the second volume of dialysis fluid between the outlet pump assembly and the dialyser (12 one or more times so as to agitate a surface of the semi-permeable membrane of the dialyser . a dialyser having a semi-permeable membrane; an inlet pump assembly operable to deliver a first volume of dialysis fluid from a dialysis fluid source to the dialyser in an inlet pump cycle having a dialysis fluid delivery stroke; an outlet pump assembly operable to remove a second volume of dialysis fluid from the dialyser and deliver the second volume of dialysis fluid away from the dialyser in an outlet pump cycle having a dialysis fluid removal stroke; a control system operable to operate the inlet pump assembly in the inlet pump cycle, and operable to operate the outlet pump assembly in the outlet pump cycle, wherein for each inlet pump cycle there is a corresponding outlet pump cycle, characterized in that either the control system is further operable to operate the inlet pump assembly in an inlet pump shuttling step additional to the inlet and outlet pump cycles to shuttle the first volume of dialysis fluid between the inlet pump assembly and the dialyser one or more times so as to agitate a surface of the semi-permeable membrane of the dialyser , or the control system is further operable to operate the outlet pump assembly in an outlet pump shuttling step additional to the inlet and outlet pump cycles to shuttle the second volume of dialysis fluid between the outlet pump assembly and the dialyser (12 one or more times so as to agitate a surface of the semi-permeable membrane of the dialyser .
An apparatus for presentation of dark field information, comprising: an input unit ; a processing unit ; and an output unit ; wherein, the input unit is configured to provide the processing unit with an X-ray attenuation image of a region of interest of an object; wherein, the input unit is configured to provide the processing unit with a dark field X-ray image of the region of interest of the object; wherein, the processing unit is configured to define a plurality of sub-regions of the region of interest based on the X-ray attenuation image of the region of interest or based on the dark field X-ray image of the region of interest; wherein, the processing unit is configured to derive at least one quantitative value for each of the plurality of sub-regions, wherein the at least one quantitative value for a sub-region comprises data derived from the X-ray attenuation image of the sub-region and data derived from the dark field X-ray image of the sub-region; wherein, the processing unit is configured to assign a plurality of figures of merit to the plurality of sub-regions, wherein a figure of merit for a sub-region is based on the at least one quantitative value for the sub-region; and wherein, the output unit is configured to output data representative of the region of interest with figures of merit for the respective sub-regions. an input unit ; a processing unit ; and an output unit ; wherein, the input unit is configured to provide the processing unit with an X-ray attenuation image of a region of interest of an object; wherein, the input unit is configured to provide the processing unit with a dark field X-ray image of the region of interest of the object; wherein, the processing unit is configured to define a plurality of sub-regions of the region of interest based on the X-ray attenuation image of the region of interest or based on the dark field X-ray image of the region of interest; wherein, the processing unit is configured to derive at least one quantitative value for each of the plurality of sub-regions, wherein the at least one quantitative value for a sub-region comprises data derived from the X-ray attenuation image of the sub-region and data derived from the dark field X-ray image of the sub-region; wherein, the processing unit is configured to assign a plurality of figures of merit to the plurality of sub-regions, wherein a figure of merit for a sub-region is based on the at least one quantitative value for the sub-region; and wherein, the output unit is configured to output data representative of the region of interest with figures of merit for the respective sub-regions.